| نویسندگان | سهیل سعیدی,محسن خلدی,عباس لقمان,حسین اشرفی,محمد عارفی |
| نشریه | ARCH CIV MECH ENG |
| شماره صفحات | 48 |
| شماره مجلد | 22 |
| ضریب تاثیر (IF) | 4.042 |
| نوع مقاله | Full Paper |
| تاریخ انتشار | 2022-02-28 |
| رتبه نشریه | علمی - پژوهشی |
| نوع نشریه | الکترونیکی |
| کشور محل چاپ | ایران |
| نمایه نشریه | JCR ,SCOPUS |
| کلید واژه ها | Cylindrical shell · Thermoelastic · Stress · FGM · DQM |
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چکیده مقاله
In this study, the thermoelastic stress analysis of a thick-walled cylinder made of functionally graded material (FGM) is investigated. The FGM is assumed a mixture of aluminum and silicone carbide in which the effective material properties are estimated through modified mixture law. Temperature distribution is obtained using the solution of one-dimensional heat transfer equation with the assumption of boundary condition. Solution procedure is developed based on the differential quadrature method. Effect of FGM characteristics such as percentages of ceramic particles at the outer side of cylinder's wall, and power of ceramic particles distribution, on the distribution of stress components, and temperature along the thickness are presented. In addition, stress distribution arising from the thermomechanical loading on structure, along the thickness are is investigated. Verification of the method, formulation and solution procedure is confirmed through comparison with available results in literature.
In this study, the thermoelastic stress analysis of a thick-walled cylinder made of functionally graded material (FGM) is investigated. The FGM is assumed a mixture of aluminum and silicone carbide in which the effective material properties are estimated through modified mixture law. Temperature distribution is obtained using the solution of one-dimensional heat transfer equation with the assumption of boundary condition. Solution procedure is developed based on the differential quadrature method. Effect of FGM characteristics such as percentages of ceramic particles at the outer side of cylinder's wall, and power of ceramic particles distribution, on the distribution of stress components, and temperature along the thickness are presented. In addition, stress distribution arising from the thermomechanical loading on structure, along the thickness are is investigated. Verification of the method, formulation and solution procedure is confirmed through comparison with available results in literature.