集成微通道大规模电路的电-热-流耦合仿真

Tianjian Lu, Jianming Jin
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引用次数: 0

摘要

提出了一种基于有限元法的电-热-流耦合仿真技术。耦合仿真将全波电磁、流体和瞬态共轭传热分析集成到一个迭代方案中,用于集成微通道冷却的电路设计。在不可压缩和充分发展的流动假设下,流体运动与温度解耦。全波电磁和瞬态共轭传热分析通过温度相关的材料特性耦合。通过自适应时间步进方案、称为有限元撕裂和互连(FETI)的域分解方案以及支持FETI的并行计算等数值技术,提高了耦合模拟的效率。通过数值算例验证了耦合模拟的能力和效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Coupled electrical-thermal-fluid simulation for large-scale circuits with integrated microchannels
A coupled electrical-thermal-fluid simulation technique is developed based on the finite element method. The coupled simulation, which integrates the full-wave electromagnetic, fluid, and transient conjugate heat transfer analyses into an iterative scheme, is devised for circuit designs with integrated micro channel cooling. The motion of fluid flow is decoupled from temperature under the assumption of incompressible and fully developed flows. The full-wave electromagnetic and the transient conjugate heat transfer analyses are coupled through temperature-dependent material properties. The efficiency of the coupled simulation is enhanced through several numerical techniques including an adaptive time stepping scheme, a domain decomposition scheme called the finite element tearing and interconnecting (FETI), and FETI-enabled parallel computing. The capability and the efficiency of the coupled simulation are demonstrated through a numerical example.
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