Thermocouple attachment using epoxy in electronic system thermal measurements — A numerical experiment

Q. He, Shane Smith, G. Xiong
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引用次数: 15

Abstract

Thermocouples have been widely used in electronics thermal measurement. Although there are many ways to attach a thermocouple to an electronic component, epoxy especially rapid bonding epoxy material has been the favorable choice due to its convenience of use. However there remains lack of comprehensive understanding of the accuracy of the measurement results and what should be done to minimize the error introduced by the thermocouple and epoxy. In this study two parameters were introduced to describe the causes of error in thermocouple measurement using epoxy. A total of eight variables that may occur in the epoxy attachment were investigated based upon a numerical experiment setup, which consisted of a detailed replication of an actual thermocouple and a typical electronic component thermal model. Different combinations along with their measurement errors were provided for side by side comparison. The measurement error could be as high as 25 ∼ 40% in some cases and even for the best case scenario it was still above 4% in this study. The quick-dry epoxy is practically good enough for most electronic thermal measurements, but attentions must be paid to control several variables that can be commonly neglected in order to assure results are acceptable. The findings from this study can be applied by thermal engineers to achieve the best practice during thermal design and measurement.
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电子系统热测量中使用环氧树脂的热电偶连接。数值实验
热电偶在电子热测量中有着广泛的应用。虽然有许多方法可以将热电偶连接到电子元件上,但环氧树脂特别是快速粘合环氧树脂材料由于其使用方便而一直是良好的选择。然而,仍然缺乏对测量结果准确性的全面理解,以及应该做些什么来最大限度地减少热电偶和环氧树脂带来的误差。本文引入两个参数来描述环氧树脂热电偶测量误差的原因。通过对实际热电偶和典型电子元件热模型的详细复制,研究了环氧树脂附着物中可能出现的8个变量。提供了不同组合及其测量误差进行并排比较。在某些情况下,测量误差可能高达25 ~ 40%,即使在最好的情况下,在本研究中仍高于4%。对于大多数电子热测量来说,快干环氧树脂实际上已经足够好了,但必须注意控制几个通常被忽视的变量,以确保结果是可以接受的。本研究的结果可以应用于热工程师在热设计和测量过程中实现最佳实践。
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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