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Travel range extension of a MEMS electrostatic microactuator
D. Piyabongkarn
, Y. Sun
,
R. Rajamani
, A. Sezen
, B. J. Nelson
Mechanical Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
61
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Scopus citations
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Keyphrases
Micro-electro-mechanical Systems
100%
Actuator
100%
Range Extension
100%
Electrostatic Microactuators
100%
Travel Range
100%
Nonlinear Dynamics
66%
Deep Reactive Ion Etching
66%
Comb Fingers
66%
Control System
33%
Subcellular Structure
33%
Position Tracking
33%
Large Molecules
33%
Stiffness
33%
Tracking Performance
33%
Electrostatic Force
33%
Inversion Method
33%
Fundamental Limitations
33%
System Parameters
33%
Nonlinear Model
33%
Adaptive Controller
33%
Fabrication Error
33%
Wide Frequency Band
33%
High Aspect Ratio
33%
Active Control System
33%
Model Inversion
33%
Biological Cells
33%
Pull-in Instability
33%
Silicon-on-insulator Wafer
33%
Mechanical Design Parameters
33%
Allowable Range
33%
Microassembly
33%
Low Actuation Voltage
33%
Microactuators
33%
Fabricated Device
33%
Goods Tracking
33%
Engineering
Microelectromechanical System
100%
Electrostatic Force
100%
Actuator
75%
Control Systems
50%
Non-Linear Dynamics
50%
Deep Reactive Ion Etching
50%
Tracking (Position)
25%
Design Parameter
25%
Experimental Result
25%
Inversion Technique
25%
Potential Application
25%
Adaptive Controller
25%
Silicon on Insulator
25%
System Parameter
25%
Nonlinear Model
25%
Mechanical Design
25%
Subcellular
25%
Active Control
25%
Actuation
25%
High Aspect Ratio
25%
Rigidity
25%
Physics
Electrostatics
100%
Microelectromechanical System
100%
Actuator
75%
Non-Linear Dynamics
50%
Active Control
25%
Aspect Ratio
25%
Tracking (Position)
25%