Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic

碩士 === 國立中央大學 === 光電科學與工程學系 === 102 === In recent years, the efficiency of organic photovoltaic has increasing dramatically through numerous researchers’ contribution. From single layer organic photovoltaic to tandem organic photovoltaic, both the absorbance of photon and charge collection is increa...

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Main Authors: Yu-Chou Huang, 黃于洲
Other Authors: Jui-Fen Chang
Format: Others
Language:zh-TW
Published: 2013
Online Access:http://ndltd.ncl.edu.tw/handle/66745893295168104400
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spelling ndltd-TW-102NCU056140032015-10-13T23:16:13Z http://ndltd.ncl.edu.tw/handle/66745893295168104400 Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic 微米光柵壓印有機太陽能電池主動層之研究 Yu-Chou Huang 黃于洲 碩士 國立中央大學 光電科學與工程學系 102 In recent years, the efficiency of organic photovoltaic has increasing dramatically through numerous researchers’ contribution. From single layer organic photovoltaic to tandem organic photovoltaic, both the absorbance of photon and charge collection is increasing gradually. We are looking forward to producing commercial batteries. This thesis focuses on enhancement of electron collection efficiency and photon absorbance in organic photovoltaic through thermal imprint lithography on active layer. The enhancement of photon absorbance is proved with spectrophotometer in this photovoltaic, and collaborated with the FDTD simulation. Finally, we perform optical simulation on varying the structure period from micrometer to nanometer scale. The photocurrent of device is measured under standard AM 1.5G solar spectrum for analyzing electrical property by I-V curve. Basing on the same imprint pressure, the short circuit current of depth of 10 nm grating active layer in OPV is 0.05 mA(relative improvement 6.6%) higher than planar one. The same phenomena can be found under higher imprinted pressure that the short circuit current of depth of 30 nm grating active layer in OPV is 0.118 mA (relative improvement 20%)higher than planar one. Therefore, the contribution of anti-reflection caused from imprinted micro-grating structure in OPV can enhance photocurrent more than planar one. Jui-Fen Chang Sheng-Hui Chen 張瑞芬 陳昇暉 2013 學位論文 ; thesis 70 zh-TW
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language zh-TW
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sources NDLTD
description 碩士 === 國立中央大學 === 光電科學與工程學系 === 102 === In recent years, the efficiency of organic photovoltaic has increasing dramatically through numerous researchers’ contribution. From single layer organic photovoltaic to tandem organic photovoltaic, both the absorbance of photon and charge collection is increasing gradually. We are looking forward to producing commercial batteries. This thesis focuses on enhancement of electron collection efficiency and photon absorbance in organic photovoltaic through thermal imprint lithography on active layer. The enhancement of photon absorbance is proved with spectrophotometer in this photovoltaic, and collaborated with the FDTD simulation. Finally, we perform optical simulation on varying the structure period from micrometer to nanometer scale. The photocurrent of device is measured under standard AM 1.5G solar spectrum for analyzing electrical property by I-V curve. Basing on the same imprint pressure, the short circuit current of depth of 10 nm grating active layer in OPV is 0.05 mA(relative improvement 6.6%) higher than planar one. The same phenomena can be found under higher imprinted pressure that the short circuit current of depth of 30 nm grating active layer in OPV is 0.118 mA (relative improvement 20%)higher than planar one. Therefore, the contribution of anti-reflection caused from imprinted micro-grating structure in OPV can enhance photocurrent more than planar one.
author2 Jui-Fen Chang
author_facet Jui-Fen Chang
Yu-Chou Huang
黃于洲
author Yu-Chou Huang
黃于洲
spellingShingle Yu-Chou Huang
黃于洲
Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
author_sort Yu-Chou Huang
title Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
title_short Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
title_full Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
title_fullStr Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
title_full_unstemmed Study of Imprinted Micro-Grating Active Layer in Organic Photovoltaic
title_sort study of imprinted micro-grating active layer in organic photovoltaic
publishDate 2013
url http://ndltd.ncl.edu.tw/handle/66745893295168104400
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