Transient model and parameters matching of a segmented solar thermoelectric system

Solar thermoelectric generators (STEGs) with segmented thermoelectric (TE) materials have higher energy conversion efficiency than traditional STEGs with uniform TE materials. This paper constructs a transient model to investigate the dynamic heat conduction characters of the segmented STEGs. The so...

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Published inInternational journal of green energy Vol. 21; no. 3; pp. 521 - 534
Main Authors Liu, Y., Wang, B., Wang, K.F., Yang, J.
Format Journal Article
LanguageEnglish
Published Taylor & Francis 19.02.2024
Subjects
energy conversion
energy conversion efficiency
heat transfer
parameters matching
renewable energy sources
segmented thermoelectric generator
Solar energy
temperature
thermal stress
transient heat conduction
Online AccessGet full text
ISSN1543-5075
1543-5083
1543-5083
DOI10.1080/15435075.2023.2200438

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Abstract Solar thermoelectric generators (STEGs) with segmented thermoelectric (TE) materials have higher energy conversion efficiency than traditional STEGs with uniform TE materials. This paper constructs a transient model to investigate the dynamic heat conduction characters of the segmented STEGs. The solutions of temperature field and energy conversion efficiency are obtained. The parameters matching problem of segmented TE materials is also studied based on the developed transient model. Numerical results show that there exists an optimum parameter matching at which the efficiency could attain its local maximum value. In addition, tuning and matching segmented TE material parameters could enhance the efficiency and might increase thermal stress simultaneously. Therefore, in this paper, an optimization purpose function is defined to analyze the effect of parameters matching on both performance and structural safety. Neural network (NN) is also used to find segmented STEGs with high efficiency and low thermal stress. This work may offer useful information for the optimal design of real segmented STEGs and promote their practical applications.
AbstractList Solar thermoelectric generators (STEGs) with segmented thermoelectric (TE) materials have higher energy conversion efficiency than traditional STEGs with uniform TE materials. This paper constructs a transient model to investigate the dynamic heat conduction characters of the segmented STEGs. The solutions of temperature field and energy conversion efficiency are obtained. The parameters matching problem of segmented TE materials is also studied based on the developed transient model. Numerical results show that there exists an optimum parameter matching at which the efficiency could attain its local maximum value. In addition, tuning and matching segmented TE material parameters could enhance the efficiency and might increase thermal stress simultaneously. Therefore, in this paper, an optimization purpose function is defined to analyze the effect of parameters matching on both performance and structural safety. Neural network (NN) is also used to find segmented STEGs with high efficiency and low thermal stress. This work may offer useful information for the optimal design of real segmented STEGs and promote their practical applications.
Author Liu, Y.
Wang, K.F.
Yang, J.
Wang, B.
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SubjectTerms energy conversion
energy conversion efficiency
heat transfer
parameters matching
renewable energy sources
segmented thermoelectric generator
Solar energy
temperature
thermal stress
transient heat conduction
Title Transient model and parameters matching of a segmented solar thermoelectric system
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