Compatibility Study of Synthesized Materials for Thermal Transport in Thermoelectric Power Generation

This study investigates the compatibility of synthesized materials for optimized thermal transport within thermoelectric modules. Experimental procedures involved the synthesis of candidate materials followed by characterization using techniques such as scanning electron microscopy, and thermal conductivity measurements. The research employs electrodeposition of HoSbxTex on the synthesized materials using AAo as a template in the electrolyte composed of 2mm TeO2, 2.5mm Bi(No3)3, 0.33mm SeO2, and 0.2m HNO3. Compatibility assessments were conducted within simulated thermoelectric modules to evaluate the materials’ performance under realistic operating conditions. The findings reveal crucial insights into the interplay between material properties and thermal transport mechanisms, guiding the selection and optimization of materials for enhanced thermoelectric power generation. Moreover, this study underscores the importance of tailored material design to achieve synergistic enhancements in both thermal and electrical conductivity, thereby advancing the efficiency and viability of thermoelectric energy conversion technologies. This research contributes to the ongoing efforts to enhance thermoelectric power generation and supports the global transition to sustainable energy systems.