Intelligent Thermoelectric Sensing with Sustainable Strain‐Hardening Geopolymeric Composites

Traditional thermoelectric (TE) building materials are limited in both performance and durability, requiring enhancements for effective energy solutions. This research investigates strain-hardening geopolymeric composites (SHGC) for TE sensing applications. The influence of metal oxides on mechanical strength and TE characteristics is evaluated using isothermal calorimetry, computed tomography scanning, and focused ion beam (FIB)-transmission electron microscopy analysis. At ambient temperature, SHGC samples with MnO<sub>2</sub> exhibit the highest Seebeck coefficient of 5470 μV K<sup>-1</sup> with a measured power density of 29 μW m<sup>-2</sup>. Despite the presence of small strain cracks, the SHGC maintains about 69% of its original <i>ZT</i> value even after long-term use. This discovery underlines the durability and efficiency of SHGC, demonstrating their potential for future infrastructure applications. The cost-effectiveness, temperature-sensing abilities, and environmental advantages of SHGC make them well suited for large-scale smart applications.

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Publication Details

Journal
Small Science
Published
2025-01-22
DOI
https://doi.org/10.1002/smsc.202400520
Citations
8
Primary Topic
Advanced Thermoelectric Materials and Devices
Type
article
Field-Weighted Citation Impact
4.14

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article

Intelligent Thermoelectric Sensing with Sustainable Strain‐Hardening Geopolymeric Composites

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8 citations
Small Science
Advanced Thermoelectric Materials and Devices
4.14
article

Intelligent Thermoelectric Sensing with Sustainable Strain‐Hardening Geopolymeric Composites

Lin Pan, J. Pan, Xiang Xi, Jingming Cai, Y. X. Zhang, Eduardus Koenders, Wenjie Xie, Neven Ukrainczyk, Yifeng Wang, Linfeng Zhang, Yu Zhang, Yujin Yuan, Zhiyang Pei
article en
8 citations

Abstract

Traditional thermoelectric (TE) building materials are limited in both performance and durability, requiring enhancements for effective energy solutions. This research investigates strain-hardening geopolymeric composites (SHGC) for TE sensing applications. The influence of metal oxides on mechanical strength and TE characteristics is evaluated using isothermal calorimetry, computed tomography scanning, and focused ion beam (FIB)-transmission electron microscopy analysis. At ambient temperature, SHGC samples with MnO<sub>2</sub> exhibit the highest Seebeck coefficient of 5470 μV K<sup>-1</sup> with a measured power density of 29 μW m<sup>-2</sup>. Despite the presence of small strain cracks, the SHGC maintains about 69% of its original <i>ZT</i> value even after long-term use. This discovery underlines the durability and efficiency of SHGC, demonstrating their potential for future infrastructure applications. The cost-effectiveness, temperature-sensing abilities, and environmental advantages of SHGC make them well suited for large-scale smart applications.

Small ScienceVol. 5(3)
Ministry of Education (NZ), Nanjing Tech University (CN), Hohai University (CN), Technische Universität Darmstadt (DE), Western Sydney University (AU), Southeast University (CN)
Government of Jiangsu Province, Natural Science Foundation of Jiangsu Province, National Key Research and Development Program of China
Industry, innovation and infrastructure
Openalex Percentile: Top 6%
Advanced Thermoelectric Materials and Devices
4.14
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