Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported

Based on the strain assumption and linear mixing rate of Vogit, the physical property parameter expression of functionally graded material plates is obtained. According to the theory of small deformation and Hamilton principle, the dynamic buckling governing equation of functionally graded material...

Full description

Bibliographic Details
Main Authors: Xin Wang, Jun Han Zhi, Li Wu Ya
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:E3S Web of Conferences
Online Access:https://doi.org/10.1051/e3sconf/20183802013
id doaj-312147f3a84c4382b10cdea9b46f12ad
record_format Article
spelling doaj-312147f3a84c4382b10cdea9b46f12ad2021-02-02T02:55:38ZengEDP SciencesE3S Web of Conferences2267-12422018-01-01380201310.1051/e3sconf/20183802013e3sconf_icemee2018_02013Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supportedXin WangJun Han ZhiLi Wu YaBased on the strain assumption and linear mixing rate of Vogit, the physical property parameter expression of functionally graded material plates is obtained. According to the theory of small deformation and Hamilton principle, the dynamic buckling governing equation of functionally graded material plates under longitudinal load is obtained. Using the method of trial function, the analytical expression of critical load and the buckling solution of the functionally graded material plate under conditions of one edge fixed and three edges simply supported is obtained. The analytical expression of critical load is numerically calculated by METLAB. The influence of geometric size, gradient index, modal order and material composition on critical load is discussed. The results show that the critical buckling load decreases exponentially with the increase of critical length, decreases with the increase of gradient index k, increases with the increase of modal order, and the elastic modulus of constituent materials has significant effect on the critical load. The higher-order buckling modes of functionally graded material plates are prone to occur under the condition of high longitudinal load.https://doi.org/10.1051/e3sconf/20183802013
collection DOAJ
language English
format Article
sources DOAJ
author Xin Wang
Jun Han Zhi
Li Wu Ya
spellingShingle Xin Wang
Jun Han Zhi
Li Wu Ya
Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
E3S Web of Conferences
author_facet Xin Wang
Jun Han Zhi
Li Wu Ya
author_sort Xin Wang
title Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
title_short Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
title_full Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
title_fullStr Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
title_full_unstemmed Research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
title_sort research on the dynamic buckling of functionally graded material plates under conditions of one edge fixed and three edges simply supported
publisher EDP Sciences
series E3S Web of Conferences
issn 2267-1242
publishDate 2018-01-01
description Based on the strain assumption and linear mixing rate of Vogit, the physical property parameter expression of functionally graded material plates is obtained. According to the theory of small deformation and Hamilton principle, the dynamic buckling governing equation of functionally graded material plates under longitudinal load is obtained. Using the method of trial function, the analytical expression of critical load and the buckling solution of the functionally graded material plate under conditions of one edge fixed and three edges simply supported is obtained. The analytical expression of critical load is numerically calculated by METLAB. The influence of geometric size, gradient index, modal order and material composition on critical load is discussed. The results show that the critical buckling load decreases exponentially with the increase of critical length, decreases with the increase of gradient index k, increases with the increase of modal order, and the elastic modulus of constituent materials has significant effect on the critical load. The higher-order buckling modes of functionally graded material plates are prone to occur under the condition of high longitudinal load.
url https://doi.org/10.1051/e3sconf/20183802013
work_keys_str_mv AT xinwang researchonthedynamicbucklingoffunctionallygradedmaterialplatesunderconditionsofoneedgefixedandthreeedgessimplysupported
AT junhanzhi researchonthedynamicbucklingoffunctionallygradedmaterialplatesunderconditionsofoneedgefixedandthreeedgessimplysupported
AT liwuya researchonthedynamicbucklingoffunctionallygradedmaterialplatesunderconditionsofoneedgefixedandthreeedgessimplysupported
_version_ 1724308861112811520