Abstract:
In micro-manipulation, the influence of gravitational force becomes extremely small. The adhesional force is more significant for smaller objects. An adhered object can b...Show MoreMetadata
Abstract:
In micro-manipulation, the influence of gravitational force becomes extremely small. The adhesional force is more significant for smaller objects. An adhered object can be detached by electrostatic interaction. The electrostatic force generated by the applied voltage and the voltage required for detachment are theoretically analyzed by using the boundary element method (BEM). The system consists of a manipulation probe, a spherical micro-object, and a substrate plate. These object are all conductive. In this study, the voltage for detachment of micro-sphere with 30 /spl mu/m diameter was experimentally clarified, and was compared with the voltage predicted by the BEM analysis. This result gives us the knowledge about the strategy for reliable electrostatic micro-manipulation.
Date of Conference: 30 September 2002 - 04 October 2002
Date Added to IEEE Xplore: 10 December 2002
Print ISBN:0-7803-7398-7
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- IEEE Keywords
- Index Terms
- Application Of Voltage ,
- Electrostatic Interactions ,
- Electrostatic Forces ,
- Gravitational Force ,
- Boundary Element Method ,
- Substrate Plate ,
- Experimental Procedures ,
- Experimental System ,
- Low Voltage ,
- Theoretical Predictions ,
- Finite Element Method ,
- Oscilloscope ,
- Repulsive Forces ,
- Size Power ,
- Probe Tip ,
- Gap Distance ,
- Video Microscopy ,
- Piezoelectric Actuator ,
- Stainless Plate ,
- Stainless Needle ,
- Work Of Adhesion ,
- Piezoelectric Stage ,
- Manual Stage ,
- Black Ones ,
- Constant Gap
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Application Of Voltage ,
- Electrostatic Interactions ,
- Electrostatic Forces ,
- Gravitational Force ,
- Boundary Element Method ,
- Substrate Plate ,
- Experimental Procedures ,
- Experimental System ,
- Low Voltage ,
- Theoretical Predictions ,
- Finite Element Method ,
- Oscilloscope ,
- Repulsive Forces ,
- Size Power ,
- Probe Tip ,
- Gap Distance ,
- Video Microscopy ,
- Piezoelectric Actuator ,
- Stainless Plate ,
- Stainless Needle ,
- Work Of Adhesion ,
- Piezoelectric Stage ,
- Manual Stage ,
- Black Ones ,
- Constant Gap