增强非富勒烯交错异质结有机太阳能电池的电荷发生能力

Roya Salamatbakhsh, Davoud Raeyani, Asghar Asgari
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摘要

互嵌异质结(IHJ)结构由于具有更好的薄膜形态稳定性、可重复性和接触选择性,最近已被研究作为体异质结(BHJ)结构的替代品。本文利用漂移扩散和麦克斯韦方程研究了非富勒烯 IHJ 结构的电学和光学特性,并将其与其他传统结构进行了比较。根据模拟结果,IHJ 结构具有增强电荷传输途径和减少非辐射重组等电学优势,并且由于其类似光子晶体的结构,与 BHJ 结构相比,IHJ 结构具有更优越的光学吸收曲线。此外,还提出了一种方法,通过引入第三种具有近红外吸收能力的有机材料,进一步增强这种结构的光学吸收,从而将太阳能电池的功率转换效率从 18.42% 提高到 19.5% 以上。
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Enhancing Charge Generation in Nonfullerene Interdigitated Heterojunction Organic Solar Cells
Interdigitated heterojunction (IHJ) structures have recently been investigated as an alternatives to bulk heterojunction (BHJ) structures due to their better film morphology stability, reproducibility, and contact selectivity. Herein, the electrical and optical properties of a nonfullerene IHJ structure are investigated using drift diffusion and Maxwell equations and compared with other conventional structures. Based on simulation results, the IHJ structure demonstrates electrical advantages such as enhanced charge transport pathways and reduced nonradiative recombination and exhibits superior optical absorption profiles compared to the BHJ structure, owing to its photonic crystal‐like structure. A method is also proposed to further enhance the optical absorption of this structure by introducing a third organic material with absorption capabilities in the near‐infrared range, increasing the solar cell power conversion efficiency from 18.42% to over 19.5%.
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