基于ansys的复杂热电动力设计的详细热力学建模

M. A. Soto, R. Venkatasubramanian
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引用次数: 11

摘要

利用ANSYS Workbench仿真软件进行有限元分析(FEA),可以对热电器件进行复杂的耦合场分析。这对于检查这些设备通过其操作引入的热机械应力是有效的。由于其运行中固有的较大温度梯度,以及热膨胀系数的不匹配,在发电过程中可能存在较大的应力。这种压力会在几个方面导致设备故障;该装置可能会断裂,系统的弯曲可能导致层之间的热接触损失和随后的传热减少。FEA模拟检查了设备在工作温度下的机械行为,包括;确定剪切应力最小化的最佳球团长度,并对系统中铌顺应垫的行为进行建模。
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ANSYS-based detailed thermo-mechanical modeling of complex thermoelectric power designs
Using Finite Element Analysis (FEA) via ANSYS Workbench simulation software, complicated coupled-field analyses of thermoelectric devices can be performed. This is effective in examining the thermo-mechanical stresses introduced in these devices through their operation. Due to the large temperature gradients inherent in their operation, as well as the mismatch in coefficients of thermal expansion, large stresses can be present during power generation. This stress can lead to device failure in several ways; the device may break, bowing of the system may lead to a loss in thermal contact between layers and subsequent reduction in heat transfer. FEA simulations examined the mechanical behavior of the device at operating temperatures, including; determination of the optimum pellet length for shear stress minimization, and modeling the behavior of Niobium compliance pads in the system.
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