TY - JOUR
T1 - The compromise condition for high performance of the single silicon heterojunction solar cells
AU - Lee, Youngseok
AU - Dao, Vinh Ai
AU - Kim, Sangho
AU - Kim, Sunbo
AU - Park, Hyeongsik
AU - Cho, Jaehyun
AU - Ahn, Shihyun
AU - Yi, Junsin
PY - 2012
Y1 - 2012
N2 - For optimum performance of the hydrogenated amorphous silicon/crystalline silicon (a-Si: H/c-Si) heterojunction solar cells, featuring a doping concentration, localized states, as well as thickness of emitter layer are crucial, since Fermi level, surface passivated quality, and light absorption have to be compromised themselves. For this purpose, the effect of both doping concentration and thickness of emitter layer was investigated. It was found that with gas phase doping concentration and emitter layer thickness of 3% and 7nm, solar cell efficiency in excess of 14.6% can be achieved. For high gas phase doping concentration, the degradation of open-circuit voltage as well as cell efficiency was obtained due to the higher disorder in the emitter layer. The heavily doped along with thicker in thickness of emitter layer results in light absorption on short wavelength, then diminishing short-circuit current density.
AB - For optimum performance of the hydrogenated amorphous silicon/crystalline silicon (a-Si: H/c-Si) heterojunction solar cells, featuring a doping concentration, localized states, as well as thickness of emitter layer are crucial, since Fermi level, surface passivated quality, and light absorption have to be compromised themselves. For this purpose, the effect of both doping concentration and thickness of emitter layer was investigated. It was found that with gas phase doping concentration and emitter layer thickness of 3% and 7nm, solar cell efficiency in excess of 14.6% can be achieved. For high gas phase doping concentration, the degradation of open-circuit voltage as well as cell efficiency was obtained due to the higher disorder in the emitter layer. The heavily doped along with thicker in thickness of emitter layer results in light absorption on short wavelength, then diminishing short-circuit current density.
UR - https://www.scopus.com/pages/publications/84863244101
U2 - 10.1155/2012/283872
DO - 10.1155/2012/283872
M3 - Article
AN - SCOPUS:84863244101
SN - 1110-662X
VL - 2012
JO - International Journal of Photoenergy
JF - International Journal of Photoenergy
M1 - 283872
ER -