An Evaporative-Gravity Technique for Airborne Equipment Cooling

M. Mark, M. Stephenson, C. Goltsos
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引用次数: 8

Abstract

In airborne electronic packages, for either thermal or electrical reasons cooling air often is not ducted directly over the components but is passed through a heat exchanger. Consequently, the thermal path between the heat exchanger and the components must be of low impedance to result in efficient heat transfer. The high heat transfer coefficients obtainable as a liquid boils and condenses permit an effective reduction of the temperature drop between the electronic components and the heat exchanger. In this paper the development and design of an evaporative system utilizing gravity return flow is discussed, and the test results of such a system are compared with those obtained utilizing a conventional metallic conductive paths technique. Where heat dissipation or cooling air inlet temperature is high, the evaporative-gravity (ev-grav) system is shown to be the most effective.
机载设备的蒸发-重力冷却技术
在机载电子封装中,由于热或电的原因,冷却空气通常不是直接穿过组件,而是通过热交换器。因此,热交换器和组件之间的热路径必须具有低阻抗,以实现有效的传热。当液体沸腾和冷凝时可获得的高传热系数允许有效地降低电子元件和热交换器之间的温降。本文讨论了利用重力回流蒸发系统的开发与设计,并将该系统的测试结果与传统金属导电路径技术的测试结果进行了比较。当散热或冷却空气入口温度较高时,蒸发-重力(ev-重力)系统被证明是最有效的。
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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