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Thermal performance evaluation of a thermoelectric cooler coupled with corona wind

机译:热电冷却器与电晕风相连的热性能评估

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摘要

The performance of a heat dissipation system that consists of a thermoelectric cooler (TEC) and corona wind generator is investigated. The combined thermoelectric cooling and corona discharge power on the system performance are explored via experiment and analytical analysis. The corona wind cooling system is optimized to achieve a higher corona wind velocity. Utilizing the TEC operating temperature, corona wind velocity, and power consumption, the study reveals that the proposed cooling system efficiency can be improved with an increase in these physical parameters. However, its performance reaches an optimal value once the Fourier conduction became a dominate factor when compared to the Peltier and Joule heating effects within the semiconductor elements of a TEC. Considering the cooling effect and power consumption, the optimal TEC and corona discharge power are determined to both be 1 W. The COP value of the proposed coupling system and the decrease of temperature are found to increase by 39.5% and 40%, respectively, indicating that the cooling efficiency of the system is improved after coupling. The knowledge gained from this study will provide a better understanding of various system parameters, including cooling temperature, power consumption and flow velocity in thermal management technology, as they are closely related in the field of electronic cooling system design.
机译:研究了由热电冷却器(TEC)和电晕风发生器组成的散热系统的性能。通过实验和分析分析探索了系统性能的组合热电冷却和电晕放电功率。电晕风冷系统经过优化,以实现更高的电晕风速。利用TEC的工作温度,电晕风速和功耗,该研究表明,可以随着这些物理参数的增加而改善所提出的冷却系统效率。然而,一旦傅立叶传导成为TEC内的半导体元件内的珀耳帖和焦耳加热效果,它的性能就达到了最佳值。考虑到冷却效果和功耗,最佳TEC和电晕放电功率都确定为1W。所提出的耦合系统的COP值和温度降低分别增加39.5%和40%,表明在耦合后,系统的冷却效率得到改善。本研究中获得的知识将更好地了解各种系统参数,包括热管理技术中的冷却温度,功耗和流速,因为它们在电子冷却系统设计领域密切相关。

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