聚光硅太阳能电池发射极区侧向效应的模拟

A. Alimardani, N. Manavizadeh, A. Afzali-Kusha, E. Asl-Soleimani
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引用次数: 0

摘要

由于顶部扩散层的横向电流流动造成的损耗是与顶部触点相关的最重要的损耗机制之一,并且可能是导致电池效率降低的限制因素,特别是对于在高太阳浓度下工作的电池,因为更高的电流密度和电压降。为了优化栅极接触的设计,有必要了解电压、横向和纵向电流密度的确切分布。在这项工作中,模拟了一种常见的硅太阳能电池结构在不同水平的太阳光浓度下,研究了不同发射层深度和偏置电压下的横向电流密度和电压分布。此外,还讨论了不同照度下扩散层的横向分布对输出功率和效率的影响。用一些解析函数模拟了两个偏置电压(最大功率电压和开路电压)下的电压和侧电流分布以及光照的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Simulation of lateral effect in emitter region of silicon solar cells for concentrated sunlight
The loss due to lateral current flow in top diffused layer is one of the most important mechanisms of loss associated with top contacts and can be a limiting factor causing the reduction of cell efficiency especially for cells made to operate at high sun concentrations, because of higher level of current density and voltage drop. To optimize the design of grid contact, it is necessary to know the exact distributions of voltage and lateral and vertical current densities. In this work, a common structure of silicon solar cell is simulated at different levels of sun light concentrations where the lateral current density and voltage distributions are examined for different depths of emitter layer and bias voltages. In addition, the effect of lateral distribution of diffused layer on output power and efficiency for different illuminations is described. Also voltage and lateral current distributions in two bias voltages (maximum power voltage and open circuit voltage) and the influence of illumination are modeled by some analytical functions.
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