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Origin of Screen-Printed Metal Contact Losses in Crystalline Silicon Solar Cells

Authors
Jeong, Myeong SangLee, Sang HeeChoi, SungjinMin, Kwan HongLee, Jong HoonKang, Min GuJeong, Kyung TaekKwak, Sang KyuSong, Hee-EunLee, Tae KyungPark, Sungeun
Issue Date
Nov-2023
Publisher
American Chemical Society
Keywords
Ag crystallite formation; crystalline silicon solar cell; dangling bond; epitaxial growth; J<sub>0.metal</sub> minimization; metal induced gap states; saturation current density
Citation
ACS Applied Energy Materials, v.6, no.23, pp 11983 - 11992
Pages
10
Indexed
SCIE
SCOPUS
Journal Title
ACS Applied Energy Materials
Volume
6
Number
23
Start Page
11983
End Page
11992
URI
https://scholarworks.gnu.ac.kr/handle/sw.gnu/69033
DOI
10.1021/acsaem.3c02143
ISSN
2574-0962
Abstract
Crystalline silicon solar cells are considered mainstream products in the photovoltaic market. To further improve their performance, it is important to reduce recombination at the contact between metal electrodes and the Si surface because the state of the metal-Si interface affects the saturation current density J0.metal and open-circuit voltage. Moreover, the large saturation current density strongly contributes to the performance degradation of the solar cells. Therefore, the interfacial structure formed by the metal electrodes and Si surface must be examined to minimize the J0.metal value. In this study, we investigated the formation mechanism of Ag crystallites on the surface of the Si emitter layer in screen-printed Ag paste. Interestingly, J0.metal was minimized by Ag epitaxial growth, which was verified using an atomic-scale approach. Furthermore, the effect of P doping on the Ag-Si interfacial structure reduced J0.metal. Our study can provide insights into the origin of J0.metal for realizing high-performance solar cells. © 2023 American Chemical Society.
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대학원 (나노신소재융합공학과)
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