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Optimization of three-dimensional up to yield bending behavior using a full layer-wise theory for FGM rectangular plate subjected to thermo- mechanical loads

机译:用全层明智理论优化三维弯曲行为,用于对热机械负荷进行FGM矩形板的全层性理论

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摘要

For the sake of finding the analytical solution for investigating the yield behavior functionally graded plates exposed to nonuniform thermo-mechanical loads and optimize this behavior, a full Layer-wise theory on the three-dimensional basis is employed in the present study. To offer up the analytical solution, the full Layer wise theory, and Navier trigonometric series are employed for the displacements field. A power-law function is employed to consider continuous material properties through the thickness of the plate. The plate is exposed to non-uniform mechanical and steady-state thermal loads. The yield behavior of the plate is studied by comparing the von Mises yield criterion in comparison with the TTO (Tamura- Tomato- Ozawa) model and is optimized by applying thermo-mechanical loads to the different surfaces of the plate. It has been shown, the yielding delay happened when the thermo-mechanical loads are subjected to the ceramic surface of the FGM plate, which has been not reported hitherto. Using the ABAQUS simulation, the analytical results of the present study are verified by numerical finite element results. The effects of changing the loading surface, changing the thickness, FGM index, and temperature on the yield behavior of the plate are presented graphically.
机译:为了寻找研究用于研究屈服行为的分析解决方案,用作非均匀热机械负载的功能渐变平板,并优化这种行为,本研究采用了三维基础的全层面理论。为了提供分析解决方案,全层明智理论和Navier三角序列用于位移场。采用动力法函数通过板的厚度考虑连续材料特性。该板暴露于非均匀的机械和稳态热载量。通过比较与TTO(Tamura-番茄)模型进行比较,通过比较Von MISES屈服标准来研究板的屈服行为,并通过将热机械载荷施加到板的不同表面来优化。已经示出,当热机械载荷经受FGM板的陶瓷表面时,发生屈服延迟,这已经没有报道迄今为止。使用ABAQUS模拟,通过数值有限元结果验证了本研究的分析结果。以图形方式呈现改变装载表面,改变厚度,FGM指数和温度的效果。

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