Investigation of Back Surface Field Layer for High Efficiency Ultrathin In2S3 based CIGS Solar Cell

Author:

Robin Mohammad Sijanur Rahaman1ORCID,Rahman Md. Mizanur2

Affiliation:

1. Department of Electrical and Electronic Engineering International Islamic University Chittagong Kumira 4318 Bangladesh

2. Department of Electrical and Computer Engineering University of Alberta Edmonton Alberta T6G 2R3 Canada

Abstract

AbstractA comprehensive study of a novel structure for In2S3 based CIGS solar cell has been observed. The effects of the absorber layer and temperature with various back surface field (BSF) layers (SnS/SnTe/MoTe2/GeTe) are analyzed with the SCAPS‐1D simulator. Performances of the ultrathin CIGS solar cell enhanced with the proposed structure of ZnO:Al/i‐ZnO/In2S3/CIGS/BSF/Mo and efficiency reached over 24% with 1000 nm CIGS absorber layer. The cell with SnS BSF layer has obtained 24.41% efficiency but shows less stability with temperature variation. On the other hand, the cell with MoTe2 BSF shows better stability at a higher temperature and reached an efficiency of 24.14%. Besides, the cell with SnTe BSF also suitable for ultrathin In2S3/CIGS, which results in an efficiency of 23.27%. However, the cell with GeTe BSF can give just over 18% efficiency, but it shows greater stability with temperature changes. This study highlights the potential of BSF layer in In2S3/CIGS solar cell enhancing the performance and stability of cells by reducing recombination losses. The incorporation of a 50 nm BSF layer allows further thinning of the absorber layer, reducing material consumption in the fabrication process without sacrificing overall efficiency.

Publisher

Wiley

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4. Solar Frontier Achieves World Record Thin‐Film Solar Cell Efficiency: 22.3% http://www.solar‐frontier.com/eng/news/2015/C051171.html(accessed:2015).

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