An overview of conjugate heat transfer augmentation methods for thermal management and recent advancements in microchannel heat sink overall performance

K. Bala Subrahmanyam, Pritam Das, Valaparla Ranjith Kumar
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Abstract

Recent technological advancement creates high-dense circuits development which creates colossal cooling demand requirements. In the future, advanced technology and scientific applications need to balance heat fluxes beyond limitation that catalyse the research opportunities further to achieve cooling requirements. Conventional cooling equipment is inappropriate for extracting heat from microchips within the minimal surface area. Microchannel technology appeared as a next-generation heat exchanger for the given heat duty. In the classical case of accounting, micro-heat exchangers both axial and transverse wall conduction effects is usually neglected. However, from the year 2005 onwards, researchers identified conduction dominance at fluid velocity is zero zones at the interface, which created balance between conduction–convection currents, finally included axial wall/heat conduction effects to a general model. This present study made a comparative evaluation fluid flow, heat transfer characteristics, thermal performance (TP) based on geometrical parameters, substrate materials and discusses previous issues, and current issues-based future research directions. Till today, based on applications of microchannels in thermal management, several experimental and numerical investigations have been reported for further improvement in TP. However, many researchers are still trying to accomplish things over a long period. Therefore, an overview of previous studies is furnished in the present study to assist researchers in this area much useful for further improvement.
概述用于热管理的共轭传热增强方法以及微通道散热器整体性能的最新进展
最近的技术进步创造了高密度电路的发展,从而产生了巨大的冷却需求。未来,先进技术和科学应用需要平衡超出限制的热通量,这将进一步促进研究机会,以满足冷却要求。传统的冷却设备不适合在最小的表面积内从微型芯片中提取热量。微通道技术作为新一代热交换器出现,可满足特定的热负荷要求。在传统的会计案例中,微型热交换器的轴向和横向壁面传导效应通常被忽略。然而,从 2005 年开始,研究人员发现在流体速度为零的界面区域,传导占主导地位,从而在传导-对流之间建立了平衡,最终将轴向壁面/热传导效应纳入了一般模型。本研究比较评估了流体流动、传热特性、基于几何参数和基底材料的热性能(TP),并讨论了以前的问题和基于当前问题的未来研究方向。迄今为止,基于微通道在热管理中的应用,已经有一些实验和数值研究报告,以进一步提高热性能。然而,许多研究人员仍在努力完成长期的工作。因此,本研究对之前的研究进行了综述,以帮助该领域的研究人员进一步改进工作。
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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