An Enhanced Thermoelectric Collaborative Cooling System With Thermoelectric Generator Serving as a Supplementary Power Source

Thermoelectric coolers (TECs) are widely used in state-of-the-art thermal management systems. Recently, there is a big trend to power TECs using thermoelectric generators (TEGs). Mainstream research efforts focus on attaining a higher figure of merit ( ZT ) of thermoelectric material, which now face...

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Veröffentlicht in:IEEE transactions on electron devices 2021-04, Vol.68 (4), p.1847-1854
Hauptverfasser: Wang, Ning, Zhang, Jian-Nan, Liu, Zhi-Yuan, Ding, Can, Sui, Guo-Rong, Jia, Hong-Zhi, Gao, Xiu-Min
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container_issue 4
container_start_page 1847
container_title IEEE transactions on electron devices
container_volume 68
creator Wang, Ning
Zhang, Jian-Nan
Liu, Zhi-Yuan
Ding, Can
Sui, Guo-Rong
Jia, Hong-Zhi
Gao, Xiu-Min
description Thermoelectric coolers (TECs) are widely used in state-of-the-art thermal management systems. Recently, there is a big trend to power TECs using thermoelectric generators (TEGs). Mainstream research efforts focus on attaining a higher figure of merit ( ZT ) of thermoelectric material, which now faces a great challenge. Alternatively, this article proposes a different approach to improve the performance of TEC, that is, integration of a TEG with a TEC. The TEG converts the collected heat energy into electric current, which reduces the power consumption and enhances the cooling capacity of the TEC. Using different methods of connecting the TEC and TEG, two thermoelectric collaborative cooling systems are proposed. Accurate SPICE models of the two cooling systems are established. The experimental results demonstrate that the discrepancy between the currents flowing through the TEC in the experiments and in the SPICE models is less than 4.8% on average. Based on the verified SPICE models, the proposed TEC-TEG collaborative cooling systems are assessed in terms of power consumption, cooling capacity, coefficient of performance, and cooling efficiency. Compared with a typical Peltier cooling system, the two collaborative cooling systems achieve significant performance improvements.
doi_str_mv 10.1109/TED.2021.3059183
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Recently, there is a big trend to power TECs using thermoelectric generators (TEGs). Mainstream research efforts focus on attaining a higher figure of merit ( ZT ) of thermoelectric material, which now faces a great challenge. Alternatively, this article proposes a different approach to improve the performance of TEC, that is, integration of a TEG with a TEC. The TEG converts the collected heat energy into electric current, which reduces the power consumption and enhances the cooling capacity of the TEC. Using different methods of connecting the TEC and TEG, two thermoelectric collaborative cooling systems are proposed. Accurate SPICE models of the two cooling systems are established. The experimental results demonstrate that the discrepancy between the currents flowing through the TEC in the experiments and in the SPICE models is less than 4.8% on average. 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subjects Analytical models
Collaboration
Collaborative cooling
Coolers
Cooling
Cooling systems
electro-thermal conversion
Energy conversion efficiency
energy harvesting
Figure of merit
Integrated circuit modeling
Management systems
Performance enhancement
Power consumption
Power demand
Resistance
SPICE
Thermal management
thermoelectric cooler (TEC)
Thermoelectric cooling
thermoelectric generator (TEG)
Thermoelectric generators
Thermoelectric materials
title An Enhanced Thermoelectric Collaborative Cooling System With Thermoelectric Generator Serving as a Supplementary Power Source
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