Elyamny Shaimaa, Bracamonte A Guillermo
Electronic Materials Research Department, Advanced Technology and New Materials Research Institute, City of Scientific Research and Technological Applications (SRTA-City) New Borg El-Arab City, P.O. Box 21934 Alexandria Egypt.
Departamento Académico, Facultad de Ciencias Químicas, Universidad Nacional de Córdoba X5000HUA Córdoba Argentina
RSC Adv. 2025 Feb 25;15(7):5571-5596. doi: 10.1039/d5ra00458f. eCollection 2025 Feb 13.
This review describes the coupling of semiconducting materials with perovskites as main optically active elements for enhancing the performance depending on the optical set-up and coupling phenomena. The various uses of semiconductor nanoparticles and related nanomaterials for energy conduction and harvesting are discussed. Thus, it was obtained different materials highlighting the properties of perovskites incorporated within heterojunctions and hybrid nanomaterials where varied materials and sources were joined. Different multi-layered substrates are reported, and different strategies for improved electron and energy transfer and harvesting are elucidated Further, enhanced coupling of semiconductive properties for the above-mentioned processes is discussed. In this regard, various nanomaterials and their properties for improving energy applications such as solar cells are demonstrated. Moreover, the incorporation of plasmonic properties from different noble metal sources and pseudo-electromagnetic properties from graphene and carbon allotropes is discussed. Since variations in electromagnetic fields affect the semiconductive properties, it leads to varying effects and potential applications within the energy research field. Hence, this review could guide the development within energy research fields as nanophotonics, photovoltaics, and energy. This review is mainly focused on the development of solar energy cells by incorporating perovskites with varied hybrid nanomaterials, photonic materials, and metamaterials.
本综述描述了半导体材料与钙钛矿的耦合,钙钛矿作为主要的光学活性元件,可根据光学设置和耦合现象提高性能。讨论了半导体纳米颗粒及相关纳米材料在能量传导和收集方面的各种用途。因此,获得了不同的材料,突出了包含在异质结和混合纳米材料中的钙钛矿的特性,其中不同的材料和来源结合在一起。报道了不同的多层基板,并阐明了改善电子和能量转移及收集的不同策略。此外,还讨论了上述过程中半导体性质的增强耦合。在这方面,展示了各种纳米材料及其在改善太阳能电池等能源应用方面的性能。此外,还讨论了来自不同贵金属源的等离子体性质以及来自石墨烯和碳同素异形体的伪电磁性质的引入。由于电磁场的变化会影响半导体性质,这导致了能源研究领域内不同的效应和潜在应用。因此,本综述可为纳米光子学、光伏和能源等能源研究领域的发展提供指导。本综述主要关注通过将钙钛矿与各种混合纳米材料、光子材料和超材料结合来开发太阳能电池。