Boes Andreas, Chang Lin, Langrock Carsten, Yu Mengjie, Zhang Mian, Lin Qiang, Lončar Marko, Fejer Martin, Bowers John, Mitchell Arnan
Integrated Photonics and Applications Centre (InPAC), School of Engineering, RMIT University, Melbourne, VIC 3000, Australia.
Institute for Photonics and Advanced Sensing (IPAS), University of Adelaide, Adelaide, SA 5005, Australia.
Science. 2023 Jan 6;379(6627):eabj4396. doi: 10.1126/science.abj4396.
Lithium niobate (LN), first synthesized 70 years ago, has been widely used in diverse applications ranging from communications to quantum optics. These high-volume commercial applications have provided the economic means to establish a mature manufacturing and processing industry for high-quality LN crystals and wafers. Breakthrough science demonstrations to commercial products have been achieved owing to the ability of LN to generate and manipulate electromagnetic waves across a broad spectrum, from microwave to ultraviolet frequencies. Here, we provide a high-level Review of the history of LN as an optical material, its different photonic platforms, engineering concepts, spectral coverage, and essential applications before providing an outlook for the future of LN.
铌酸锂(LN)于70年前首次合成,已广泛应用于从通信到量子光学等各种领域。这些大量的商业应用为建立高质量铌酸锂晶体和晶圆的成熟制造与加工业提供了经济手段。由于铌酸锂能够在从微波到紫外频率的广谱范围内产生和操纵电磁波,因此已实现了从突破性科学演示到商业产品的转变。在此,我们对铌酸锂作为光学材料的历史、其不同的光子平台、工程概念、光谱覆盖范围和重要应用进行了高层次综述,然后展望了铌酸锂的未来。