Light-trapping Optimisation Framework Based on Fourier-space Grating Design for Coupling to Waveguide Modes in an Ultra-thin Solar Cell

Eduardo Camarillo Abad, H. Joyce, L. Hirst
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Abstract

Ever-thinner solar cells are currently of interest to the photovoltaics community and demand the introduction of light-trapping techniques to retain a competitive photovoltaic performance. This work presents a framework for a guided light-trapping design applied to an ultra-thin (< 100 nm) solar cell. The framework is based on a fundamental study of the waveguide modes supported by a realistic device architecture. Mode-coupling is ensured by introducing a scattering layer according to its Fourier spectrum. The framework can be applied to any device architecture and for single or multiple wavelength absorption enhancement, having the flexibility to attain high-efficiency in ever-thinner photovoltaics.
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基于傅里叶空间光栅设计的超薄太阳能电池波导模式耦合光捕获优化框架
越来越薄的太阳能电池目前引起了光伏社区的兴趣,并要求引入光捕获技术以保持具有竞争力的光伏性能。这项工作提出了一个应用于超薄(< 100纳米)太阳能电池的引导光捕获设计框架。该框架基于对实际器件结构支持的波导模式的基础研究。通过根据其傅立叶谱引入散射层来保证模式耦合。该框架可以应用于任何器件架构,并用于单波长或多波长吸收增强,具有灵活性,可以在更薄的光伏电池中实现高效率。
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