Coupling PCM-based Heat Sinks finite elements model for mechatronic devices with Design Optimization procedure

Bessem Debich, A. Yaich, A. Elhami, W. Gafsi, L. Walha, M. Haddar
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引用次数: 4

Abstract

An efficient strategy is presented in the recent study. This strategy leads to determine the best design based on thermal management system of phase change material (PCM) for cooling electronic devices. The phase change material is filled inside the heat sink made of Aluminum. Salt Hydrate is used as PCM to keep the temperature of such devices below the critical temperature by absorbing the thermal energy released by electronic components. In the last few decades, designers try to find the optimal design of such a structure. Then, many methods have been developed to reach this goal. Deterministic Design Optimization (DDO) used proposes to minimize an objective function based on physical constrain (thermal constrain). In fact, the maximum temperature of the electronic device should not reach the critical one, to guarantee its best performance. The proposed strategy is programmed using MATLAB codes which is coupled with the finite element software Ansys. Its efficiency is then verified using a numerical application of PCM based heat sink.
基于耦合pcm的机电设备散热器有限元模型及设计优化程序
在最近的研究中提出了一种有效的策略。这一策略决定了基于相变材料(PCM)热管理系统的最佳设计,用于冷却电子器件。相变材料填充在铝制散热器内部。盐水合物作为PCM,通过吸收电子元件释放的热能,使器件的温度保持在临界温度以下。在过去的几十年里,设计师们试图找到这种结构的最佳设计。于是,许多方法被开发出来以达到这一目标。确定性设计优化(DDO)是一种基于物理约束(热约束)最小化目标函数的优化方法。事实上,电子设备的最高温度不应达到临界温度,以保证其最佳性能。采用MATLAB编程,并结合Ansys有限元软件对该策略进行了编程。然后使用基于PCM的散热器的数值应用验证了其效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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