Kamarudin Muhammad Akmal, Sahamir Shahrir Razey, Datta Robi Shankar, Long Bui Duc, Mohd Sabri Mohd Faizul, Mohd Said Suhana
Department of Electrical Engineering, Faculty of Engineering, University of Malaya, 50603 Kuala Lumpur, Malaysia.
ScientificWorldJournal. 2013 Nov 12;2013:713640. doi: 10.1155/2013/713640.
Thermoelectricity, by converting heat energy directly into useable electricity, offers a promising technology to convert heat from solar energy and to recover waste heat from industrial sectors and automobile exhausts. In recent years, most of the efforts have been done on improving the thermoelectric efficiency using different approaches, that is, nanostructuring, doping, molecular rattling, and nanocomposite formation. The applications of thermoelectric polymers at low temperatures, especially conducting polymers, have shown various advantages such as easy and low cost of fabrication, light weight, and flexibility. In this review, we will focus on exploring new types of polymers and the effects of different structures, concentrations, and molecular weight on thermoelectric properties. Various strategies to improve the performance of thermoelectric materials will be discussed. In addition, a discussion on the fabrication of thermoelectric devices, especially suited to polymers, will also be given. Finally, we provide the challenge and the future of thermoelectric polymers, especially thermoelectric hybrid model.
热电学通过将热能直接转化为可用电能,提供了一种很有前景的技术,可用于将太阳能转化为热能以及回收工业部门和汽车尾气中的废热。近年来,人们通过不同方法致力于提高热电效率,即纳米结构化、掺杂、分子振动和形成纳米复合材料。热电聚合物在低温下的应用,尤其是导电聚合物,已展现出各种优势,如制造简便、成本低、重量轻和柔韧性好。在本综述中,我们将专注于探索新型聚合物以及不同结构、浓度和分子量对热电性能的影响。还将讨论提高热电材料性能的各种策略。此外,还将对特别适用于聚合物的热电装置的制造进行讨论。最后,我们阐述了热电聚合物面临的挑战和未来发展方向,尤其是热电混合模型。