Jaldurgam Farheen F, Ahmad Zubair, Touati Farid
Department of Electrical Engineering, College of Engineering, Qatar University, Doha 2713, Qatar.
Qatar University Young Scientist Center (YSC), Qatar University, Doha 2713, Qatar.
Nanomaterials (Basel). 2021 Apr 23;11(5):1091. doi: 10.3390/nano11051091.
Thermoelectricity is a promising technology that directly converts heat energy into electricity and finds its use in enormous applications. This technology can be used for waste heat recovery from automobile exhausts and industrial sectors and convert the heat from solar energy, especially in hot and humid areas such as Qatar. The large-scale, cost-effective commercialization of thermoelectric generators requires the processing and fabrication of nanostructured materials with quick, easy, and inexpensive techniques. Moreover, the methods should be replicable and reproducible, along with stability in terms of electrical, thermal, and mechanical properties of the TE material. This report summarizes and compares the up-to-date technologies available for batch production of the earth-abundant and ecofriendly materials along with some notorious works in this domain. We have also evaluated and assessed the pros and cons of each technique and its effect on the properties of the materials. The simplicity, time, and cost of each synthesis technique have also been discussed and compared with the conventional methods.
热电技术是一项很有前景的技术,它能将热能直接转化为电能,并在众多应用中得到应用。这项技术可用于从汽车尾气和工业部门回收废热,并将太阳能产生的热量转化为电能,特别是在卡塔尔等炎热潮湿地区。热电发电机的大规模、具有成本效益的商业化需要采用快速、简便且廉价的技术来加工和制造纳米结构材料。此外,这些方法应具有可复制性和可重复性,同时热电材料的电学、热学和力学性能要稳定。本报告总结并比较了用于批量生产储量丰富且环保材料的最新技术,以及该领域一些著名的研究成果。我们还评估了每种技术的优缺点及其对材料性能的影响。此外,还讨论了每种合成技术的简便性、所需时间和成本,并与传统方法进行了比较。