DocumentCode
3245771
Title
Progressive collapse simulation of truss structures based on the Finite Particle Method
Author
Yu, Ying ; Li, Ran ; Luo, Yaozhi
Author_Institution
Dept. of Civil Eng., Shantou Univ., Shantou, China
fYear
2011
fDate
22-24 April 2011
Firstpage
567
Lastpage
571
Abstract
This paper presents the progressive failure simulation of truss structures using the Finite Particle Method (FPM). Three major difficulties in structural collapse simulation, namely the description of dynamic behaviors of structures, geometric and material nonlinearity and fracture, are considered in collapse process. Different from the traditional finite element method generated from continuum mechanics and variational principle, the FPM is based on the vector mechanics. It discretizes the structure with finite particles and enforces equilibrium on each particle. The FPM is very advantageous in the simulation of structural strong nonlinearity and discontinuity behaviors. This paper provides the basic idea on how to handle the major difficulties above-mentioned in the collapse analysis using the FPM. A numerical example is also given to show the capability of the FPM in the progressive collapse analysis of truss structures.
Keywords
continuum mechanics; failure (mechanical); finite element analysis; fracture; structural engineering; supports; continuum mechanics; finite element method; finite particle method; fracture; geometric nonlinearity; material nonlinearity; progressive collapse simulation; progressive failure simulation; structural collapse simulation; truss structures; variational principle; vector mechanics; Equations; Finite element methods; Force; Materials; Mathematical model; Strain; Three dimensional displays; Finite Particle Method (FPM); dynamics; fracture; nonlinearity; progressive collapse; vector mechanics;
fLanguage
English
Publisher
ieee
Conference_Titel
Electric Technology and Civil Engineering (ICETCE), 2011 International Conference on
Conference_Location
Lushan
Print_ISBN
978-1-4577-0289-1
Type
conf
DOI
10.1109/ICETCE.2011.5775698
Filename
5775698
Link To Document