热电模块和热交换器在混合系统冷却应用中的性能分析与表征

L. Campbell, R. Wagner, R. Simons
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引用次数: 5

摘要

热电制冷机是电子冷却应用中亚环境制冷的潜在替代品,在这些应用中,由于压缩机和电子膨胀阀的机械性质,依赖蒸汽压缩制冷会导致冷却失败的风险。热电制冷机的另一个好处是,无论环境条件如何,都可以实现电子元件的可控冷却,最终的散热器可以是空气或设施水。本文描述的工作目标是研究具有合理容量(瓦特),性能系数(COP)和可靠性(平均故障间隔时间,MTBF)的热电制冷机,用于电子冷却应用。提供了四组测试:热电模块用加热器块和冷板进行测试(图2),热电热交换器测试,其中热电模块冷热侧布置在隔离回路(图5)、单个串行回路(图6)和并联回路(图7)中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis and characterization of thermoelectric module and heat exchanger performance in a hybrid system cooling application
A thermoelectric chiller is a potential replacement for sub-ambient refrigeration for electronics cooling applications, where the reliance on vapor compression refrigeration results in risk of cooling failure due to the mechanical nature of the compressor and electronic expansion valve. Another benefit of a thermoelectric chiller is that controllable cooling of the electronic component can be achieved regardless of ambient conditions, and the ultimate heat sink can be either air or facility water. The goal of the work described herein is to study a thermoelectric chiller with reasonable capacity (in Watts), coefficient of performance (COP), and reliability (mean time between failures, MTBF), for electronics cooling applications. Four sets of tests are presented: a thermoelectric module tested with a heater block and a cold plate (Figure 2), and thermoelectric heat exchanger tests where the thermoelectric module hot and cold sides are arranged in segregated loops (Figure 5), a single serial loop (Figure 6), and parallel loops (Figure 7).
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