Pull-in Instability Behaviour of Nanoscale Actuators Using Nonlocal Elasticity Theory

Jian She Peng; Guang Bing Luo; Liu Yang; Jie Yang

doi:10.4028/www.scientific.net/AMR.468-471.2755

Paper Titles

Study on the Production and Properties of Mulberry Fiber
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Probabilistic Access Based Call Admission Control in Multi-Traffic CDMA System
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Vehicle Path Planning Method Based on Particle Swarm Optimization Algorithm
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Research on the Division for Functional Area of Evaluation of Intensive Use Based on Delaunay Triangulation and GIS – A Case of Functional Area for Residence in Qingyang
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Pull-in Instability Behaviour of Nanoscale Actuators Using Nonlocal Elasticity Theory
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Seismic Studies for Gas Hydrate Characterization in a Marine Case
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Study on Construction of Close-to-Nature Man-Made Plant Landscape Based on Natural Plant Communities: the Case of West Lake Scenic Area in Hangzhou
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The Impact of Different Temperatures Pre-Steaming Treatment on European Beech
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Research on the Inclusion Complex of Astaxanthin
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Pull-in Instability Behaviour of Nanoscale Actuators Using Nonlocal Elasticity Theory

Abstract:

This paper modified the linear distributed load (LDL) model for cantilever nano-beams . A linear load model which suits boundary conditions was proposed to approximate with nonlinear intermolecular and electrostatic interactions. In the modified LDL model, under considerating the effect of the small scale, the pull-in instability behaviour of nano-actuators subjected to an electrostatic force and intermolecular force had been investigated. The results showed that the modified LDL model is more consistent with the actual situation than LDL model.