钙钛矿(结构)
等离子体子
材料科学
光电子学
等离子太阳电池
能量转换效率
表面等离子共振
表面等离子体子
光致发光
光活性层
局域表面等离子体子
纳米颗粒
纳米技术
聚合物太阳能电池
化学
结晶学
作者
Yulin Liu,Seongha Lee,Yifan Yin,Ming‐Xing Li,Mircea Cotlet,Chang‐Yong Nam,Jung‐Kun Lee
标识
DOI:10.1002/adom.202201116
摘要
Abstract Plasmonic perovskite solar cells (PSCs) using core−shell type plasmonic particles are designed, which possess the plasmon resonance in the near‐infrared range. This can selectively strengthen the interaction of the perovskite layer with low‐energy photons. The mesoporous PSCs employing the plasmonic particles have delivered a 10%–15% enhancement of external quantum efficiency in the plasmonic resonance range. This surface‐plasmonic effect has been analyzed using complementary techniques, including selective wavelength excitation and time‐dependent photoluminescence. It is shown that the metal‐based core−shell‐type plasmonic structures in PSCs optimize the scattering and absorption of incident light and the dynamics of photogenerated carriers. Furthermore, both optical and electronic effects increase the power conversion efficiency of PSCs from 17.49% to 19.88%, paving a way toward controlling the thickness of the photoactive layer for advanced devices such as tandem solar cells.
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