热电效应
热导率
热电材料
材料科学
硅
半导体
热电发电机
工程物理
纳米孔
电
光电子学
纳米线
可穿戴技术
纳米技术
可穿戴计算机
电气工程
计算机科学
复合材料
物理
工程类
热力学
嵌入式系统
作者
Huajun Lai,Ying Peng,Jie Gao,Masashi Kurosawa,Osamu Nakatsuka,Tsunehiro Takeuchi,Lei Miao
标识
DOI:10.35848/1347-4065/abbb69
摘要
Thermoelectric (TE) materials can convert any kind of heat into electricity through the Seebeck effect. Harvesting body heat and generating electricity by TE wearable devices can provide a convenient charge service for electrical equipment, even in the case of emergency or disaster. As a high-temperature excellent TE material, silicon also exhibits promising room temperature (RT) potential for wearable TE devices due to its safe and mature production line for the semiconductor industry. Aiming to search for solutions for reducing thermal conductivity (), this review summarizes the low-dimensional strategies for reducing based on nanostructural classification, thus enhancing zT at RT, and it also looks into the prospect of wearable application. Following in the footsteps of nanostack (NS), nanowire (NW), nanoporous (NP) and nanocomposite (NC) Si-based TE materials research, we found that the thermal conductivity has been well controlled and that harmonious regulation of the power factor (PF) with will be the future direction.
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