Comparison of the thermoelectric performance of different photovoltaic/thermal hybrid thermoelectric generation modules: An experimental study

To enhance the thermoelectric performance of photovoltaic/thermal hybrid thermoelectric generations modules (PV/T-TEG), a novel photovoltaic/dual thermal phase change material thermoelectric component (PV/2 T-PCM-TEG) was designed, which is composed of PV-PCM-TEG and TEG hot and cold side of the two layers of serpentine copper tubes. In this study, we designed and constructed an experimental bench for five components, PV , PV/T, PV/T-PCM, PV/T-PCM-TEG, and PV/2 T-PCM-TEG, and completed comparative performance analyses. The results showed that PV/2 T-PCM-TEG not only improved the power generation performance of photovoltaic cells more effectively, but also obtained more thermal exergy, with total average and optimal exergy efficiencies of 14.86 % and 18.50 %, respectively. The average PV cell temperature of the PV/2 T-PCM-TEG can be reduced by a maximum of 10.8 °C, 8.6 °C, 3.6 °C, and 2.1 °C compared to the first four modules. The PV/2 T-PCM-TEG had the best power generation performance with 12.97 % efficiency, and its average total exergy efficiency is 55.11 %, 42.61 %, 11.39 %, and 5.92 % higher than that of the previous four types of modules, respectively. It can be seen that the PV/2 T-PCM-TEG module can effectively improve the thermoelectric properties and provide a reference basis for the design of PV/T-TEG structure. • A PV/2 T-PCM-TEG component was designed. • Performance test benches for five different PV components were constructed. • Thermoelectric properties of five different PV components were compared. • Thermoelectric properties of PV/2 T-PCM-TEG component was effectively improved. • Thermoelectric exergy efficiency of PV/2 T-PCM-TEG was increased by 5.92 %.

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Publication Details

Journal
Applied Energy
Published
2024-10-28
DOI
https://doi.org/10.1016/j.apenergy.2024.124771
Citations
19
Primary Topic
Advanced Thermoelectric Materials and Devices
Type
article
Field-Weighted Citation Impact
2.23
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article

Comparison of the thermoelectric performance of different photovoltaic/thermal hybrid thermoelectric generation modules: An experimental study

Wenjie Zhou, Congcong Xu, Qianjun Mao, Junyong Yu et al.
19 citations
Applied Energy
Advanced Thermoelectric Materials and Devices
2.23
article

Comparison of the thermoelectric performance of different photovoltaic/thermal hybrid thermoelectric generation modules: An experimental study

Wenjie Zhou, Congcong Xu, Qianjun Mao, Junyong Yu, Guannan Li, T. Li, Xinyu Peng
article en
19 citations

Abstract

To enhance the thermoelectric performance of photovoltaic/thermal hybrid thermoelectric generations modules (PV/T-TEG), a novel photovoltaic/dual thermal phase change material thermoelectric component (PV/2 T-PCM-TEG) was designed, which is composed of PV-PCM-TEG and TEG hot and cold side of the two layers of serpentine copper tubes. In this study, we designed and constructed an experimental bench for five components, PV , PV/T, PV/T-PCM, PV/T-PCM-TEG, and PV/2 T-PCM-TEG, and completed comparative performance analyses. The results showed that PV/2 T-PCM-TEG not only improved the power generation performance of photovoltaic cells more effectively, but also obtained more thermal exergy, with total average and optimal exergy efficiencies of 14.86 % and 18.50 %, respectively. The average PV cell temperature of the PV/2 T-PCM-TEG can be reduced by a maximum of 10.8 °C, 8.6 °C, 3.6 °C, and 2.1 °C compared to the first four modules. The PV/2 T-PCM-TEG had the best power generation performance with 12.97 % efficiency, and its average total exergy efficiency is 55.11 %, 42.61 %, 11.39 %, and 5.92 % higher than that of the previous four types of modules, respectively. It can be seen that the PV/2 T-PCM-TEG module can effectively improve the thermoelectric properties and provide a reference basis for the design of PV/T-TEG structure. • A PV/2 T-PCM-TEG component was designed. • Performance test benches for five different PV components were constructed. • Thermoelectric properties of five different PV components were compared. • Thermoelectric properties of PV/2 T-PCM-TEG component was effectively improved. • Thermoelectric exergy efficiency of PV/2 T-PCM-TEG was increased by 5.92 %.

Applied EnergyVol. 378
Wuhan University of Science and Technology (CN)
Affordable and clean energy
Openalex Percentile: Top 8%
Advanced Thermoelectric Materials and Devices
2.23
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