The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices

碩士 === 國立臺北科技大學 === 材料科學與工程研究所 === 98 === In this study,we successfully prepared CIGS absorber layers by multi-source thermal co-evaporation system,and we choose the Corning glass substrate, metal molybdenum back contact, CdS buffer layer, Window layers of Intrinsic-ZnO、ZnO doping aluminum and alumi...

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Main Authors: Tsun-jan Yang, 楊存然
Other Authors: Sea-Fue Wang
Format: Others
Language:zh-TW
Published: 2010
Online Access:http://ndltd.ncl.edu.tw/handle/592nak
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spelling ndltd-TW-098TIT051590192019-05-15T20:33:25Z http://ndltd.ncl.edu.tw/handle/592nak The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices 共蒸鍍法製備CIGS太陽電池吸收層及其元件特性研究 Tsun-jan Yang 楊存然 碩士 國立臺北科技大學 材料科學與工程研究所 98 In this study,we successfully prepared CIGS absorber layers by multi-source thermal co-evaporation system,and we choose the Corning glass substrate, metal molybdenum back contact, CdS buffer layer, Window layers of Intrinsic-ZnO、ZnO doping aluminum and aluminum front contact to product CIGS thin film solar cell. Copper, indium, galium, selenium, each element evaporation source are the independent, we put the granular element in the independent crucible and heating, used the saturated vapor pressure (close to its melting point) of each materials and control the CIGS thin films growth and it’s composition by each evaporation source activities shutter. Main chamber’s vacuum requirements ranging between 10-2 ~ 10 -6 torr. We focus on CIGS thin films elemental composition ratio to research and investigate, try to change the elemental composition ratio to discuss the effect of crystal phase. General CIGS absorber layer will show a small amount of Cu-deficient phenomenon, about Cu / In + Ga ratio between 0.9 ~ 0.95, so in this study we change the copper evaporation source temperature from 1356 ℃ to 1376 ℃, 2 ℃ to do a change, will be Cu / In + Ga control from 0.58 to 0.92, observed crystalline phase structure by XRD。Totaly preparation process success simplify of the single stage of co-evaporation, preparation time is shortened to within 40 min, with a shorter preparation process more simple advantage. After assessment, we choose appropriate range of parameters for production of CIGS solar cells and analyzed cell characteristics and conversion efficiency measurements, the successful conversion efficiency of 6.95% preparation of CIGS solar cells. Sea-Fue Wang 王錫福 2010 學位論文 ; thesis 63 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 國立臺北科技大學 === 材料科學與工程研究所 === 98 === In this study,we successfully prepared CIGS absorber layers by multi-source thermal co-evaporation system,and we choose the Corning glass substrate, metal molybdenum back contact, CdS buffer layer, Window layers of Intrinsic-ZnO、ZnO doping aluminum and aluminum front contact to product CIGS thin film solar cell. Copper, indium, galium, selenium, each element evaporation source are the independent, we put the granular element in the independent crucible and heating, used the saturated vapor pressure (close to its melting point) of each materials and control the CIGS thin films growth and it’s composition by each evaporation source activities shutter. Main chamber’s vacuum requirements ranging between 10-2 ~ 10 -6 torr. We focus on CIGS thin films elemental composition ratio to research and investigate, try to change the elemental composition ratio to discuss the effect of crystal phase. General CIGS absorber layer will show a small amount of Cu-deficient phenomenon, about Cu / In + Ga ratio between 0.9 ~ 0.95, so in this study we change the copper evaporation source temperature from 1356 ℃ to 1376 ℃, 2 ℃ to do a change, will be Cu / In + Ga control from 0.58 to 0.92, observed crystalline phase structure by XRD。Totaly preparation process success simplify of the single stage of co-evaporation, preparation time is shortened to within 40 min, with a shorter preparation process more simple advantage. After assessment, we choose appropriate range of parameters for production of CIGS solar cells and analyzed cell characteristics and conversion efficiency measurements, the successful conversion efficiency of 6.95% preparation of CIGS solar cells.
author2 Sea-Fue Wang
author_facet Sea-Fue Wang
Tsun-jan Yang
楊存然
author Tsun-jan Yang
楊存然
spellingShingle Tsun-jan Yang
楊存然
The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
author_sort Tsun-jan Yang
title The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
title_short The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
title_full The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
title_fullStr The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
title_full_unstemmed The Absorber layers of CIGS Solar Cell prepared by Coevaporation method and Characteristic of its devices
title_sort absorber layers of cigs solar cell prepared by coevaporation method and characteristic of its devices
publishDate 2010
url http://ndltd.ncl.edu.tw/handle/592nak
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