激光二极管金刚石微冷却器的数值模拟与仿真

K. Matin, Yan Zheng, A. Bar-Cohen
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引用次数: 2

摘要

激光二极管的高热流管理方案需要适当的冷却应用。微通道冷却器现在广泛应用于高功率激光二极管工业,据报道其最高总热阻低至0.03 cm2-K/W,压降低至10~50 psi。由于当前SOA LD微冷却器的几何形状、流量以及高热流不同,因此有必要了解它们相对于导电、对流和热阻的热性能。为了进行这种比较,开发了等效的有效微冷却器热模型,然后使用SOA LD微冷却器的缩放输入参数进行迭代。目的是确定在减少总热阻方面起主要作用的主要热阻。然后,本文将预测一种微型冷却器,它可能能够将总热阻降低到0.01 K-cm2/W以下,并具有最小的压降,用于下一代高热流密度应用。目前的研究仅限于单相液体冷却。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Numerical modeling and simulation of laser diode diamond microcoolers
High heat flux management schemes in laser diodes require appropriate cooling applications. Micro channel coolers are now widely used in high power laser diode industry with the highest total thermal resistance reported as low as 0.03 cm2-K/W with pressure drops as low as 10~50 psi. Since, the geometries, flow rates as well as high heat fluxes of current SOA LD micro-coolers differ, it is necessary to understand their thermal performance relative to conductive, convective and caloric thermal resistance. To do this comparison an equivalent effective micro-cooler thermal model is developed and then iterated with scaled input parameters from SOA LD micro-coolers. The objective is to identify the dominant thermal resistance - that plays the major role in decreasing the total thermal resistance. This paper will then predict a micro cooler that will perhaps be able to reduce total thermal resistance lower than 0.01 K-cm2/W with minimal pressure drop for next generation high heat flux applications. The current study will be restricted to only single phase liquid cooling.
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