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Perspectives of Organic and Perovskite-Based Spintronics
Advanced Optical Materials ( IF 8.0 ) Pub Date : 2021-03-19 , DOI: 10.1002/adom.202100215 Alberto Privitera 1 , Marcello Righetto 2 , Franco Cacialli 2 , Moritz K. Riede 1
Advanced Optical Materials ( IF 8.0 ) Pub Date : 2021-03-19 , DOI: 10.1002/adom.202100215 Alberto Privitera 1 , Marcello Righetto 2 , Franco Cacialli 2 , Moritz K. Riede 1
Affiliation
Spin-related phenomena in optoelectronic materials can revolutionize several technological applications in the areas of data processing and storage, quantum computing, lighting, energy harvesting, sensing, and healthcare. A fundamental boost to this promising field can be envisaged thanks to the use of two emerging materials, which have recently been receiving increasing scientific attention: organic semiconductors (OSCs) and halide perovskites (HPs). Here, the first progress in the resulting fields, organic- and perovskite-based spintronics, is reviewed, which will enable the manipulation of spin, charges, and photons in spin/optoelectronic devices. A link between these two classes of materials is created by highlighting the pros and cons of each technology, and their potential applications in new multifunctional spintronic devices are discussed. Current challenges in the field are also outlined, and convenient approaches to overcome them are proposed.
中文翻译:
基于有机和钙钛矿的自旋电子学的前景
光电材料中的自旋相关现象可以彻底改变数据处理和存储、量子计算、照明、能量收集、传感和医疗保健领域的多项技术应用。由于使用了最近受到越来越多科学关注的两种新兴材料:有机半导体 (OSC) 和卤化物钙钛矿 (HP),可以设想对这一有前景的领域的根本推动。在这里,回顾了由此产生的领域的第一个进展,即基于有机和钙钛矿的自旋电子学,这将使自旋/光电器件中的自旋、电荷和光子的操纵成为可能。通过突出每种技术的优缺点建立了这两类材料之间的联系,并讨论了它们在新型多功能自旋电子器件中的潜在应用。
更新日期:2021-03-19
中文翻译:
基于有机和钙钛矿的自旋电子学的前景
光电材料中的自旋相关现象可以彻底改变数据处理和存储、量子计算、照明、能量收集、传感和医疗保健领域的多项技术应用。由于使用了最近受到越来越多科学关注的两种新兴材料:有机半导体 (OSC) 和卤化物钙钛矿 (HP),可以设想对这一有前景的领域的根本推动。在这里,回顾了由此产生的领域的第一个进展,即基于有机和钙钛矿的自旋电子学,这将使自旋/光电器件中的自旋、电荷和光子的操纵成为可能。通过突出每种技术的优缺点建立了这两类材料之间的联系,并讨论了它们在新型多功能自旋电子器件中的潜在应用。