首页> 外文期刊>International Journal of Photoenergy >Simulation and Experimental Study of Photogeneration and Recombination in Amorphous-Like Silicon Thin Films Deposited by 27.12 MHz Plasma-Enhanced Chemical Vapor Deposition
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Simulation and Experimental Study of Photogeneration and Recombination in Amorphous-Like Silicon Thin Films Deposited by 27.12 MHz Plasma-Enhanced Chemical Vapor Deposition

机译:27.12 MHz等离子体增强化学气相沉积沉积的非晶硅薄膜的光生和复合行为的模拟和实验研究

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摘要

Amorphous-like silicon (a-Si:H-like) thin films are prepared by 27.12 MHz plasma-enhanced chemical vapor deposition technique. The films are applied to p-i-n single junction thin film solar cells with varying i-layer thickness to observe the effects on the short-circuit current density, as well as the open-circuit voltage, fill factor, and conversion efficiency. The most significant experimental result is that J_(sc) has two different behaviors with increasing the i-layer thickness, which can be related to carrier collection efficiency in the long wavelength region. Furthermore, technology computer-aided design simulation software is used to gain better insight into carrier generation and recombination of the solar cells, showing that for the i-layer thickness of 200 to 300 nm the generation dominates the carrier density and thus J_(sc), whereas for the i-layer thickness of 300 to 400 nm the recombination becomes the leading factor. The simulation results of cell performances are in good agreement with experimental data, indicating that our simulation has great reliability. In addition, the a-Si:H-like solar cells have low light-induced degradation, which in turn can have a great potential to be used for stable and high-efficiency solar cells.
机译:通过27.12 MHz等离子体增强化学气相沉积技术制备非晶态硅(a-Si:H状)薄膜。将该膜应用于具有不同i层厚度的p-i-n单结薄膜太阳能电池,以观察其对短路电流密度以及开路电压,填充系数和转换效率的影响。最有意义的实验结果是,随着i层厚度的增加,J_(sc)具有两种不同的行为,这可能与长波长区域的载流子收集效率有关。此外,使用技术计算机辅助设计仿真软件可更好地了解太阳能电池的载流子生成和重组,表明对于200至300 nm的i层厚度,该生成占主导地位的是载流子密度,因此J_(sc) ,而对于300到400 nm的i层厚度,复合成为主要因素。电池性能的仿真结果与实验数据吻合良好,表明我们的仿真具有很高的可靠性。另外,a-Si:H类太阳能电池具有较低的光诱导降解性,这反过来又具有用于稳定和高效太阳能电池的巨大潜力。

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