Пропуск в контексте

Extreme environment wideband, high-efficiency photovoltaics based on new physical principles and hyperfast LPE GaAs power electronics

The paper examines the issues of solar cells designs based on new LPE GaAs epitaxial structures for high-efficiency reception and conversion of solar energy in the wavelength band λ = 0,2 ÷ 4,0 μm, which allows to use them both under extreme climatic conditions of Sahara desert and in Baltic Sea reg...

全面介绍

Сохранить в:
书目详细资料
Главные авторы: Saytiev, A. B., Саутиев, А. Б., Sysoev, I. A., Сысоев, И. А.
格式: Статья
语言:English
出版: Institute of Electrical and Electronics Engineers Inc. 2019
主题:
在线阅读:https://www.scopus.com/record/display.uri?eid=2-s2.0-85071956605&origin=resultslist&sort=plf-f&src=s&st1=Extreme+environment+wideband%2c+high-efficiency+photovoltaics+based+on+new+physical+principles+and+hyperfast+LPE+GaAs+power+electronics&st2=&sid=1c5a6fe41babdcf93eed0c3d463275ee&sot=b&sdt=b&sl=148&s=TITLE-ABS-KEY%28Extreme+environment+wideband%2c+high-efficiency+photovoltaics+based+on+new+physical+principles+and+hyperfast+LPE+GaAs+power+electronics%29&relpos=0&citeCnt=0&searchTerm=
https://dspace.ncfu.ru/handle/20.500.12258/7497
标签: 添加标签
没有标签, 成为第一个标记此记录!
实物特征
总结:The paper examines the issues of solar cells designs based on new LPE GaAs epitaxial structures for high-efficiency reception and conversion of solar energy in the wavelength band λ = 0,2 ÷ 4,0 μm, which allows to use them both under extreme climatic conditions of Sahara desert and in Baltic Sea region.The paper shows future promising power devices for DC/AC conversion of solar energy to single-phase and three-phase power at frequencies 2 ÷ 10 MHz and with maximum ambient/case operating temperature up to 250°C.The paper addresses challenges and opportunities for development of new-generation high-performance LPE GaAs photodetectors on the basis of the new physical principles:-effect of GaAs energy band gap splitting by amphoteric hydrogen-like centers on silicon (Si) atoms;-phenomenon of efficiency increase in photodetectors based on quantum dot magnetic centers