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A robust nano-mechanics approach for tensile and modal analysis using atomistic-continuum mechanics method
Journal article   Peer reviewed

A robust nano-mechanics approach for tensile and modal analysis using atomistic-continuum mechanics method

Chao-Jen Huang, Chung-Jung Wu, Hung-An Teng and Kuo-Ning Chiang
Computational Materials Science, Vol.50(7), pp.2245-2248
05/2011

Abstract

Atomistic-continuum mechanics Carbon nanotube Copper Finite element method Silicon
Nanoscale engineering has been developing rapidly. However, experimental investigations at the nanoscale level are very difficult to conduct. This research seeks to employ the same model to investigate an atomic-scale structure for tensile and modal analyses, based on atomistic-continuum mechanics (ACM) and a finite element method (FEM). The ACM transfers an originally discrete atomic structure into an equilibrium continuum model using atomistic-continuum transfer elements. All interatomic forces, described by the empirical potential functions, can be transferred into springs to form the atomic structure. The spring network models were also widely utilized in FEM based nano-structure studies. Thus, this paper attempts to explore ACM using three examples including silicon, carbon nanotube, and copper. All of the results are validated by bulk properties or literature. © 2011 Published by Elsevier B.V. All rights reserved.

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