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考虑热松弛的热弹耦合二维问题的有限元法
  • 期刊名称:工程力学, 2011, 28(12): 1-6. (EI源刊)
  • 时间:0
  • 分类:O343[理学—固体力学;理学—力学] P467[天文地球—大气科学及气象学]
  • 作者机构:[1]School of Science, Lanzhou University of Technology, Lanzhou 730050, China
  • 相关基金:supported by the National Natural Science Foundation of China(Nos.11372123 and 11072101); the Natural Science Foundation of Gansu Province(No.1107RJZA151); the Fundamental Research Funds for the Universities of Gansu; Hong-Liu Excellent Talents Program of Lanzhou University of Technology
  • 相关项目:功能梯度材料介质中广义热弹性波传播研究
中文摘要:

Based on the generalized thermoelasticity proposed by Green and Lindsay, the dynamic response of generalized thermoelastic problems with temperature-dependent material properties is investigated. The governing equations are formulated and found to be nonlinear because of the temperature-dependence of properties. Owing to the nonlinearity of the governing equations, the finite element method is resorted to for solution. The results obtained show that the temperature-dependent properties influence the variables considered by reducing their magnitudes. This indicates that taking the temperature-dependence of properties into consideration in the investigation of generalized thermoelastic problems is necessary and practical for accurately predicting the thermoelastic behavior.

英文摘要:

Based on the generalized thermoelasticity proposed by Green and Lindsay, the dynamic response of generalized thermoelastic problems with temperature-dependent material properties is investigated. The governing equations are formulated and found to be nonlinear because of the temperature-dependence of properties. Owing to the nonlinearity of the governing equations, the finite element method is resorted to for solution. The results obtained show that the temperature-dependent properties influence the variables considered by reducing their magnitudes. This indicates that taking the temperature-dependence of properties into consideration in the investigation of generalized thermoelastic problems is necessary and practical for accurately predicting the thermoelastic behavior.

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