钝化
PID控制器
降级(电信)
材料科学
帕夏
共发射极
硼
电介质
光电子学
太阳能电池
电气工程
化学工程
化学
纳米技术
物理
图层(电子)
工程类
有机化学
温度控制
热力学
考古
历史
作者
Maciej K. Stodolny,G.J.M. Janssen,Bas B. Van Aken,Kees Tool,M.W.P.E. Lamers,I.G. Romijn,Peter Venema,Marten Renes,O. Siarheyeva,Ernst Granneman,Jianming Wang,Jikui Ma,Jingguang Cui,Lang Fang,Zhiyan Hu,J. Löffler
标识
DOI:10.1016/j.egypro.2016.07.026
摘要
In this paper we report on the high stability of our n-type front junction solar cells (n-PERT) exposed to potential-induced degradation (PID) and UV-induced degradation (UVID) conditions. These intrinsically stable n-Pasha cells enable PID- and UVID-resistant modules even with industrially low-cost standard EVA encapsulant, independent of system grounding and system voltage. Based on intentional modifications of the Boron emitter and/or the dielectric layer in the PID-free and UVID-free n-Pasha solar cells, we are able to replicate reported degradation effects and study the mechanisms behind it. A combination of altering the boron profile and the dielectric properties together with increasing the interface defect density Dit is detrimental for the stability. Applying our standard optimal B-diffusion and passivation scheme assure that the UV radiation and system voltage have virtually no effect on our n-Pasha cell and module performance.
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