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Electrical-Thermal Co-Simulation of 3D Integrated Systems With Micro-Fluidic Cooling and Joule Heating Effects

机译:具有微流体冷却和焦耳热效应的3D集成系统的电热联合仿真

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摘要

In this paper, the electrical-thermal co-simulation of 3D systems with Joule heating, fluidic cooling and air convection effects is proposed. The finite-volume method formulations of voltage distribution equation, heat equations for both fluid flow and solid medium with nonuniform mesh are explained in detail. Based on the proposed iterative co-simulation method, package temperature distribution and voltage drop with Joule heating and fluidic cooling effects can be estimated. Several packaging examples are simulated and the results show that with micro-channel fluidic cooling in high power density 3D integrated packages, the thermal effect on voltage drop is reduced by 10% which is much less than that of using a traditional heat sink.
机译:在本文中,提出了具有焦耳加热,流体冷却和空气对流效应的3D系统的电热联合仿真。详细解释了网格分布不均匀的流体和固体介质的电压分布方程,热方程的有限体积方法公式。基于所提出的迭代协同仿真方法,可以估算封装温度分布和电压降以及焦耳加热和流体冷却的影响。模拟了几个封装示例,结果表明,在高功率密度3D集成封装中进行微通道流体冷却后,对电压降的热影响降低了10%,这远低于使用传统散热器的热效应。

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