平面光子学：二维半导体纳米光子学的挑战与机遇
光学
2026-02-26 v1
摘要
二维(2D)半导体正在作为纳米光子学的多功能平台 emerge，凭借通过极子共振工程、van der Waals异质结构和外部场控制实现的光学性质的前所未有的可调性。这些材料实现了主动光调制、单光子发射、量子光子学以及谷浦子学功能，为下一代光子电子器件和量子光子器件铺平了道路。然而，在实现大面积集成、维持极子相干性以及优化�幅相位调制以实现高效光操控方面，仍面临关键挑战。制造技术、应变工程和计算建模的进展将是克服这些限制的关键。本篇综述强调了近期在二维半导体基纳米光子学方面的进展，强调可扩展集成到光子学中的机遇。
引用
@article{arxiv.2507.00336,
title = {Photonics in Flatland: Challenges and Opportunities for Nanophotonics with 2D Semiconductors},
author = {Ali Azimi and Julien Barrier and Angela Barreda and Thomas Bauer and Farzaneh Bouzari and Abel Brokkelkamp and Francesco Buatier de Mongeot and Timothy Parsons and Peter Christianen and Sonia Conesa-Boj and Alberto G. Curto and Suprova Das and Bernardo Dias and Itai Epstein and Zlata Fedorova and F. Javier García de Abajo and Ilya Goykhman and Lara Greten and Johanna Grönqvist and Ludovica Guarneri and Yujie Guo and Tom Hoekstra and Xuerong Hu and Benjamin Laudert and Jason Lynch and Sabrina Meyer and Battulga Munkhbat and Dragomir Neshev and Masha Ogienko and Sotirios Papadopoulos and Aparna Parappurath and Jeroen Sangers and Pedro Soubelet and Chris Soukaras and Giancarlo Soavi and Isabelle Staude and Zhipei Sun and Klaas-Jan Tielrooij and MD Gius Uddin and Alexey Ustinov and Jorik van de Groep and Jasper van Wezel and Nathalie Vermeulen and Hai Wang and Yadong Wang and Sanshui Xiao and Bingying You and Xavier Zambrana-Puyalto},
journal= {arXiv preprint arXiv:2507.00336},
year = {2026}
}
备注
39 pages, 7 figures