A Comprehensive Study on X-Type Thermoelectric Generator Modules

This paper focuses on studying the feasibility of an X-type thermoelectric module with different draft angles. A three-dimensional finite element model is established to analyze the thermoelectric and mechanical performance under steady-state conditions. Temperature, output power, conversion efficie...

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Veröffentlicht in:Journal of electronic materials 2020-07, Vol.49 (7), p.4343-4354
Hauptverfasser: Wang, Ruochen, Meng, Zihan, Luo, Ding, Yu, Wei, Zhou, Weiqi
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container_end_page 4354
container_issue 7
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container_title Journal of electronic materials
container_volume 49
creator Wang, Ruochen
Meng, Zihan
Luo, Ding
Yu, Wei
Zhou, Weiqi
description This paper focuses on studying the feasibility of an X-type thermoelectric module with different draft angles. A three-dimensional finite element model is established to analyze the thermoelectric and mechanical performance under steady-state conditions. Temperature, output power, conversion efficiency, and thermal stress are evaluated under four draft angles of 10°, 20°, 30°, and 40°. The numerical results indicate that the maximum output power of the X-type thermoelectric module is reached when θ  = 10°, and it is about 4.57% higher than that of the traditional structure. The maximum von Mises stress occurs on four corners of the hot-side surfaces of the thermoelectric legs, and it decreases with an increase in the draft angle, while at the same time the von Mises stress on the middle surface is continuously increased. Additionally, shorter legs not only improve the output power, but can also enhance the mechanical performance. It can be concluded, therefore, that the design of the X-type structure with a certain draft angle can enhance the performance of the thermoelectric module with regard to both electrical power and mechanical reliability. The findings of this work may provide a basis for optimization of thermoelectric modules.
doi_str_mv 10.1007/s11664-020-08152-4
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A three-dimensional finite element model is established to analyze the thermoelectric and mechanical performance under steady-state conditions. Temperature, output power, conversion efficiency, and thermal stress are evaluated under four draft angles of 10°, 20°, 30°, and 40°. The numerical results indicate that the maximum output power of the X-type thermoelectric module is reached when θ  = 10°, and it is about 4.57% higher than that of the traditional structure. The maximum von Mises stress occurs on four corners of the hot-side surfaces of the thermoelectric legs, and it decreases with an increase in the draft angle, while at the same time the von Mises stress on the middle surface is continuously increased. Additionally, shorter legs not only improve the output power, but can also enhance the mechanical performance. It can be concluded, therefore, that the design of the X-type structure with a certain draft angle can enhance the performance of the thermoelectric module with regard to both electrical power and mechanical reliability. 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A three-dimensional finite element model is established to analyze the thermoelectric and mechanical performance under steady-state conditions. Temperature, output power, conversion efficiency, and thermal stress are evaluated under four draft angles of 10°, 20°, 30°, and 40°. The numerical results indicate that the maximum output power of the X-type thermoelectric module is reached when θ  = 10°, and it is about 4.57% higher than that of the traditional structure. The maximum von Mises stress occurs on four corners of the hot-side surfaces of the thermoelectric legs, and it decreases with an increase in the draft angle, while at the same time the von Mises stress on the middle surface is continuously increased. Additionally, shorter legs not only improve the output power, but can also enhance the mechanical performance. 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subjects Characterization and Evaluation of Materials
Chemistry and Materials Science
Electronics and Microelectronics
Energy conversion efficiency
Finite element method
Instrumentation
Materials Science
Mechanical properties
Modules
Optical and Electronic Materials
Optimization
Solid State Physics
Thermal stress
Thermoelectric generators
Thermoelectricity
Three dimensional models
title A Comprehensive Study on X-Type Thermoelectric Generator Modules
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