Journal article
2017
HCI and Accessibility Researcher
Postdoctoral Scholar
tmotahar[at] uw [dot] edu
Paul G. Allen School of Computer Science and Engineering
University of Washington
HCI and Accessibility Researcher
tmotahar[at] uw [dot] edu
Paul G. Allen School of Computer Science and Engineering
University of Washington
APA
Click to copy
Rahman, R., Motahar, T., & Rahman, T. (2017). Influence of Texture Depth and Layer Thickness of Crater-like Textured ZnO on the Efficiency of Thin Film Solar Cell.
Chicago/Turabian
Click to copy
Rahman, Rummana, Tamanna Motahar, and T. Rahman. “Influence of Texture Depth and Layer Thickness of Crater-like Textured ZnO on the Efficiency of Thin Film Solar Cell” (2017).
MLA
Click to copy
Rahman, Rummana, et al. Influence of Texture Depth and Layer Thickness of Crater-like Textured ZnO on the Efficiency of Thin Film Solar Cell. 2017.
BibTeX Click to copy
@article{rummana2017a,
title = {Influence of Texture Depth and Layer Thickness of Crater-like Textured ZnO on the Efficiency of Thin Film Solar Cell},
year = {2017},
author = {Rahman, Rummana and Motahar, Tamanna and Rahman, T.}
}
The application of zinc oxide (ZnO) thin film as transparent conductive oxide (TCO) layer in thin film solar cells (TFSC) has high potential because of the various advantages of ZnO over other TCO materials. In this paper, the influence of the crater-like texture of ZnO layer on the optical properties and performance of the solar cell is investigated. Using the commercial simulation software RSoft Fullwave and RSoft Solar Cell Utility, we designed solar cells with crater-like textured ZnO layers as TCO and varied the crater depth along with overall ZnO thickness. It was found that, the crater-like textured ZnO layer provides better light trapping with increased crater depth as well as higher conversion efficiency near the IR region in the solar spectrum.