Two-dimensional modeling of the back amorphous-crystalline silicon heterojunction (BACH) photovoltaic device
Zahidur Chowdhury, Alongkarn Chutinan, Adel B. Gougam, Nazir P. Kherani, S. Źükotyński
Abstract
Zahidur Chowdhury, Alongkarn Chutinan, Adel B. Gougam, Nazir P. Kherani, S. Źükotyński
Abstract
Back Amorphous-Crystalline Silicon Heterojunction (BACH)1 solar cell can be fabricated using low temperature processes while integrating high efficiency features of heterojunction silicon solar cells and back-contact homojunction solar cells. This article presents a two-dimensional modeling study of the BACH cell concept. A parametric study of the BACH cell has been carried out using Sentaurus after benchmarking the software. A detailed model describing the optical generation is defined. Solar cell efficiency of 24.4% is obtained for AM 1.5 global spectrum with VOC of greater than 720 mV and JSC exceeding 40 mA/cm2, considering realistic surface passivation quality and other dominant recombination processes.
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Back Amorphous-Crystalline Silicon Heterojunction (BACH)1 solar cell can be fabricated using low temperature processes while integrating high efficiency features of heterojunction silicon solar cells and back-contact homojunction solar cells. This article presents a two-dimensional modeling study of the BACH cell concept. A parametric study of the BACH cell has been carried out using Sentaurus after benchmarking the software. A detailed model describing the optical generation is defined. Solar cell efficiency of 24.4% is obtained for AM 1.5 global spectrum with VOC of greater than 720 mV and JSC exceeding 40 mA/cm2, considering realistic surface passivation quality and other dominant recombination processes.
Key concepts: Homojunction, Heterojunction, Passivation, Amorphous silicon, Optoelectronics, Solar cell, Crystalline silicon, Materials science