Approach to the Practical Use of Thermoelectric Power Generation

被引:0
|
作者
Takenobu Kajikawa
机构
[1] Shonan Institute of Technology,
来源
关键词
Thermoelectrics; thermoelectric power generation; Seebeck effect; waste heat recovery; themoelectric module; global warming prevention;
D O I
暂无
中图分类号
学科分类号
摘要
The results of research and development in the Japanese national project “Development for Advanced Thermoelectric Conversion Systems” are summarized, and the approaches to practical use of advanced thermoelectric modules and power generation systems are presented. The 5-year national project was successfully completed in March 2007. Three kinds of high- efficiency cascaded thermoelectric modules and two kinds of innovative Bi-Te thermoelectric modules were successfully developed. Heat cycle tests for three types of modules were also completed. Moreover, four types of advanced thermoelectric power generation systems were experimentally demonstrated for recovery of waste heat from the industrial and private sectors. In order to proceed further, thermoelectric power generation systems using practical heat sources were followed after installation of the developed modules. In parallel, various approaches for practical use by private companies, as well as plans for the next-phase project by the National Institute of Advanced Industrial Science and Technology (AIST) and the Engineering Advancement Association (ENAA), were also followed. The scenarios to proceed to the commercial phase of thermoelectric power generation are discussed on the basis of the results of the national project.
引用
收藏
页码:1083 / 1088
页数:5
相关论文
共 50 条
  • [31] ANALYSIS OF THERMOELECTRIC-POWER GENERATION USING THERMOELECTRIC ELEMENT
    OGAWA, Y
    WATANABE, H
    SAKAI, M
    TUNOU, K
    ELECTRONICS AND COMMUNICATIONS IN JAPAN PART II-ELECTRONICS, 1994, 77 (05): : 93 - 105
  • [32] Development of a Computational Fluid Dynamics (CFD) Numerical Approach of Thermoelectric Module for Power Generation
    Qasim, Mohammed A.
    Velkin, Vladimir, I
    Shcheklein, Sergey E.
    CRYSTALS, 2022, 12 (06)
  • [33] The potential impacts of climate-change policy on freshwater use in thermoelectric power generation
    Chandel, Munish K.
    Pratson, Lincoln F.
    Jackson, Robert B.
    ENERGY POLICY, 2011, 39 (10) : 6234 - 6242
  • [34] High-temperature PbTe thin films for use in cascade thermoelectric power generation
    Posthill, JB
    Caylor, JC
    Crocco, PD
    Colpitts, TS
    Venkatasubramanian, R
    THERMOELECTRIC MATERIALS 2003-RESEARCH AND APPLICATIONS, 2004, 793 : 455 - 460
  • [35] Thermoelectric interface materials: A perspective to the challenge of thermoelectric power generation module
    Liu, Weishu
    Bai, Shengqiang
    JOURNAL OF MATERIOMICS, 2019, 5 (03) : 321 - 336
  • [36] Thermoelectric Analysis for Helical Power Generation Systems
    Meng, Xiangning
    Fujisaka, Takeyuki
    Suzuki, Ryosuke O.
    JOURNAL OF ELECTRONIC MATERIALS, 2014, 43 (06) : 1509 - 1520
  • [37] Metal oxides for thermoelectric power generation and beyond
    Feng, Yining
    Jiang, Xiaodong
    Ghafari, Ehsan
    Kucukgok, Bahadir
    Zhang, Chaoyi
    Ferguson, Ian
    Lu, Na
    ADVANCED COMPOSITES AND HYBRID MATERIALS, 2018, 1 (01) : 114 - 126
  • [38] A cool water option for thermoelectric power generation
    Vincent Tidwell
    Nature Water, 2023, 1 (5): : 420 - 421
  • [39] Power generation using oxide thermoelectric modules
    Funahashi, Ryoji
    Urata, Saori
    Mihara, Toshiyuki
    Nabeshima, Naoki
    Iwasaki, Kanako
    INDUSTRIAL CERAMICS, 2008, 28 (03): : 227 - 233
  • [40] Current Status of Thermoelectric Power Generation Technology
    Lee, Jae Kwang
    Kim, Jin Won
    Lee, Jaeyoung
    APPLIED CHEMISTRY FOR ENGINEERING, 2016, 27 (04): : 353 - 357