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MOON, WON KYU (문원규)
Dept of Mechanical Engineering(기계공학과)
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ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHESIVE:1||PROTEIN:1||BYSSUS:1||triplelayer bender:1||OPTIMALDESIGN:1||SENSITIVITY:1||NEARFIELD:1||multibody dynamics:1||SPECTROSCOPY:1||SPECIFICITY:1||AFFINITY:1||Quasi envelope tracking:1||반복법:1||field effect transistor:1||Parasitic impedance:1||Contact method:1||POLY(GAMMABENZYLLGLUTAMATE):1||Polarization:1||DRIVEN:1||extracted circuit parameter:1||unimorph bender:1||EQUATIONS:1||NOISE:1||FORCE MICROSCOPY:1||ATOMICFORCE:1||PLATE:1||Parametric array:1||SYSTEM:1||LARGE ACOUSTIC TRANSDUCER:1||point charge:1||dynamic behavior:1||Private audio communication system:1||능동 소나:1||MEMS microphone:1||Piezoelectric transducers:1||Ultrasonic transducers:1||POLYMERFILM:1||RADIATION IMPEDANCE:1||RESONANTFREQUENCY:1||.:1||FFR transducer array:1||Composite material:1||ELECTROMECHANICAL PROPERTIES:1||POLYMERS:1||crosstalk:1||state equation:1||electrostatic force microscopy:1||contact area:1||CROSSLINKING:1||microgripper:1||piezoresistive sensor:1||piezoelectric:1||BIMORPHS:1||hysteresis compensation:1||Micropulloff testing:1||THINFILM:1||acoustic radiators:1||Thin plate:1||DNA:1||Capacitive displacement sensor:1||ORIENTATION:1||NANOFIBERS:1||THINFILMS:1||LIQUID:1||POLYMER NANOFIBERS:1||CELLULAR ELECTRET FILMS:1||electromagnetic motional system:1||detection mechanism:1||ferroelectrics:1||cantilever modification:1||forcedistance curve:1||piezomultilayer bender:1||quasistatic model:1||STORAGE:1||Projector Array:1||Acoustic Coupling:1||CONDENSER MICROPHONES:1||LONGRANGE:1||ADHESIVE:1||longranged:1||TIP:1||flexure hinge:1||WAVEGUIDE THEORY:1||DOMAINSTRUCTURES:1||adhesive protein:1||substrate patterning:1||DLC:1||high resolution:1||bimorph bender:1||ultrasonic transducer arrays:1||ultrasonic waves:1||Air backing:1||Ultrasonic sensor:1||MICROSCOPE:1||배열 해석:1||음향결합:1||FREEEDGE PLATES:1||electret:1||ORDER:1||DEVICES:1||piezoelectric multilayer bender:1||Matching circuit:1||JETS:1||BLOCKCOPOLYMERS:1||scanner:1||spontaneous polarization:1||theoretical calculation:1||Atomic force microscopy:1||Force map:1||Array Analysis:1||ELECTRICFIELD:1||FERROELECTRIC THINFILMS:1||FIELD:1||MODE:1||Hysteresis:1||FORCE:1||CYLINDER:1||ROOMS:1||third auxiliary chopstick:1||electrostatic force:1||Equivalent electric circuit model:1||System design:1||Piezoelectric polymer:1||ALPHAHELIX:1||RungeKutta method:1||FEM:1||ATOMICFORCE MICROSCOPE:4||CHARGE:4||progressive multileaf spring:3||SILICON:3||FILMS:3||PRESSURE:3||SENSORS:3||CANTILEVER:3||MODEL:3||INSULATOR SURFACES:3||AIR:3||MEMS:3||SENSOR:3||PARAMETRIC ARRAY:3||RESOLUTION:3||DESIGN:2||electromechanical coupling:2||scanning probe microscopy:2||metaloxidesemiconductor transistor:2||Rayleigh model:2||READOUT:2||pMUT:2||encoder:2||closuredomain:2||DYNAMICS:2||NANOPROBES:2||TRANSDUCER:2||SWING ADSORPTION:2||focused ion beam:2||LAW:2||SCANNING ELECTROCHEMICAL MICROSCOPY:2||micro cantilever:2||RESONANCEFREQUENCY:2||recursive dynamics formula:2||piezoelectric stack actuator:2||ATOMICFORCE MICROSCOPY:2||ARRAYS:2||PZT:2||FORCE MICROSCOPE:2||RESONATORS:2||VIBRATION:2||SOUND:2||BENZYLLGLUTAMATE:2||Vshaped cantilever:2||linear complementarity condition:2||PROBES:2||structural characteristics:2||ARRAY:2||TRANSDUCERS:2||MICROMACHINED ULTRASONIC TRANSDUCERS:2||contacttype:2||DATASTORAGE:2||ACTUATORS:2||AFM:2||oscillating circuit:2||LOUDSPEAKER:2||CERAMICS:2||capacitive displacement sensor:2||tensionclosure:2||wiresuspended dynamical systems:2||MICROSCOPY:2||NANOSTRUCTURES:2||noise:2||selfexcitation:2||mass micro balancing:2||IMPEDANCE:2||parallel beam approximation:2||TUNNELING MICROSCOPE:2||LIVING CELLS:2||Piezoelectric actuator:1||BEAM IMPLANTATION:1||ALIGNED HELICAL POLYPEPTIDES:1||atomic force microscope:1||POSITIONER:1||nonlinear characteristics:1||MICROGRIPPER:1||Euler beam theory:1||MULTIBODY DYNAMICS:1||Piezoelectric sensor:1||High directivity:1||electrostatic actuator:1||SYSTEMS:1||PROBE:1||Iteration:1||프로젝터 배열:1||POWER:1||Surface profile effect:1||COEFFICIENTS:1||analysis of robot dynamics:1||Sonar system:1||alphaHelix:1||adhesive force measurement:1||NANOTWEEZERS:1||atomic force microscopy:1||Adhesive force measurement:1||Adhesive protein:1||acoustic parametric devices:1||MEMS hydrophone:1||Continuum model:1||RADIATION:1||ATOMICFORCEMICROSCOPE:1||MOLECULES:1||SURFACEPLASMON RESONANCE:1||GLYCOSYLATION:1||Power amplifier:1||Active Sonar:1||ULTRASONIC TRANSDUCERS:1||cantilever beams:1||stiffness:1||MUSSEL ADHE
