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In Situ LID and Regeneration of PERC Solar Cells from Different Positions of a B-Doped Cz-Si Ingot

In order to investigate the light-induced-degradation (LID) and regeneration of industrial PERC solar cells made from different positions of silicon wafers in a silicon ingot, five groups of silicon wafers were cut from a commercial solar-grade boron-doped Czochralski silicon (Cz-Si) ingot from top...

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Published in:International journal of photoenergy 2022-01, Vol.2022, p.1-12
Main Authors: Yuan, Shuai, Ding, Siqi, Ai, Bin, Chen, Daming, Jin, Jingsheng, Ye, Jiaxing, Qiu, Depeng, Sun, Xiaopu, Liang, Xueqin
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container_title International journal of photoenergy
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creator Yuan, Shuai
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description In order to investigate the light-induced-degradation (LID) and regeneration of industrial PERC solar cells made from different positions of silicon wafers in a silicon ingot, five groups of silicon wafers were cut from a commercial solar-grade boron-doped Czochralski silicon (Cz-Si) ingot from top to bottom with a certain distance and made into PERC solar cells by using the standard industrial process after measuring lifetimes of minority carriers and concentrations of boron, oxygen, carbon, and transition metal impurities. Then, the changes of their I-V characteristic parameters (efficiency η, open-circuit voltage Voc, short-circuit current Isc, and fill factor FF) with time were in situ measured by using a solar cell I-V tester during the 1st LID (45°C, 1 sun, 12 h), regeneration (100°C, 1 sun, 24 h), and 2nd LID (45°C, 1 sun, 12 h). The results show that the LID and regeneration of the PERC solar cells are caused by the transition of B-O defects playing a dominant role together with the dissociation of Fe-B pairs playing a secondary role. The decay of η during the 1st LID is caused by the degradation of Voc, Isc, and FF, while the increase of η during the regeneration is mainly contributed by Voc and FF, and the decay of η during the 2nd LID is mainly induced by the degradation of Isc. After regeneration, the decay rate of η reduces from 4.43%–5.56% (relative) during the 1st LID to 0.33%–1.75% (relative) during the 2nd LID.
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subjects Boron
Carrier density
Circuits
Decay rate
Efficiency
Ingots
Laboratories
Lifetime
Minority carriers
Open circuit voltage
Photodegradation
Photovoltaic cells
Regeneration
Screen printing
Short circuit currents
Silicon
Silicon wafers
Solar cells
Sun
Transition metals
Wafers
title In Situ LID and Regeneration of PERC Solar Cells from Different Positions of a B-Doped Cz-Si Ingot
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