Garcia de Abajo, F. Javier and Basov, D. N. and Koppens, Frank H. L. and Orsini, Lorenzo and Ceccanti, Matteo and Castilla, Sebastian and Cavicchi, Lorenzo and Polini, Marco and Goncalves, P. A. D. and Costa, A. T. and Peres, N. M. R. and Mortensen, N. Asger and Bharadwaj, Sathwik and Jacob, Zubin and Schuck, P. J. and Pasupathy, A. N. and Delor, Milan and Liu, M. K. and Mugarza, Aitor and Merino, Pablo and Cuxart, Marc G. and Chavez-Angel, Emigdio and Svec, Martin and Tizei, Luiz H. G. and Dirnberger, Florian and Deng, Hui and Schneider, Christian and Menon, Vinod and Deilmann, Thorsten and Chernikov, Alexey and Thygesen, Kristian S. and Abate, Yohannes and Terrones, Mauricio and Sangwan, Vinod K. and Hersam, Mark C. and Yu, Leo and Chen, Xueqi and Heinz, Tony F. and Murthy, Puneet and Kroner, Martin and Smolenski, Tomasz and Thureja, Deepankur and Chervy, Thibault and Genco, Armando and Trovatello, Chiara and Cerullo, Giulio and Dal Conte, Stefano and Timmer, Daniel and De Sio, Antonietta and Lienau, Christoph and Shang, Nianze and Hong, Hao and Liu, Kaihui and Sun, Zhipei and Rozema, Lee A. and Walther, Philip and Alu, Andrea and Marini, Andrea and Cotrufo, Michele and Queiroz, Raquel and Zhu, X. -Y. and Cox, Joel D. and Dias, Eduardo J. C. and Echarri, Alvaro Rodriguez and Iyikanat, Fadil and Herrmann, Paul and Tornow, Nele and Klimmer, Sebastian and Wilhelm, Jan and Soavi, Giancarlo and Sun, Zeyuan and Wu, Shiwei and Xiong, Ying and Matsyshyn, Oles and Kumar, Roshan Krishna and Song, Justin C. W. and Bucher, Tomer and Gorlach, Alexey and Tsesses, Shai and Kaminer, Ido and Schwab, Julian and Mangold, Florian and Giessen, Harald and Sanchez Sanchez, M. and Efetov, D. K. and Low, T. and Gomez-Santos, G. and Stauber, T. and Alvarez-Perez, Gonzalo and Duan, Jiahua and Martin-Moreno, Luis and Paarmann, Alexander and Caldwell, Joshua D. and Nikitin, Alexey Y. and Alonso-Gonzalez, Pablo and Mueller, Niclas S. and Volkov, Valentyn and Jariwala, Deep and Shegai, Timur and van de Groep, Jorik and Boltasseva, Alexandra and Bondarev, Igor V. and Shalaev, Vladimir M. and Simon, Jeffrey and Fruhling, Colton and Shen, Guangzhen and Novko, Dino and Tan, Shijing and Wang, Bing and Petek, Hrvoje and Mkhitaryan, Vahagn and Yu, Renwen and Manjavacas, Alejandro and Ortega, J. Enrique and Cheng, Xu and Tian, Ruijuan and Mao, Dong and Van Thourhout, Dries and Gan, Xuetao and Dai, Qing and Sternbach, Aaron and Zhou, You and Hafezi, Mohammad and Litvinov, Dmitrii and Grzeszczyk, Magdalena and Novoselov, Kostya S. and Koperski, Maciej and Papadopoulos, Sotirios and Novotny, Lukas and Viti, Leonardo and Vitiello, Miriam Serena and Cottam, Nathan D. and Dewes, Benjamin T. and Makarovsky, Oleg and Patane, Amalia and Song, Yihao and Cai, Mingyang and Chen, Jiazhen and Naveh, Doron and Jang, Houk and Park, Suji and Xia, Fengnian and Jenke, Philipp K. and Bajo, Josip and Braun, Benjamin and Burch, Kenneth S. and Zhao, Liuyan and Xu, Xiaodong (2025) Roadmap for Photonics with 2D Materials. ACS PHOTONICS, 12 (8). pp. 3961-4095. ISSN 2330-4022,
Full text not available from this repository. (Request a copy)Abstract
Triggered by advances in atomic-layer exfoliation and growth techniques, along with the identification of a wide range of extraordinary physical properties in self-standing films consisting of one or a few atomic layers, two-dimensional (2D) materials such as graphene, transition metal dichalcogenides (TMDs), and other van der Waals (vdW) crystals now constitute a broad research field expanding in multiple directions through the combination of layer stacking and twisting, nanofabrication, surface-science methods, and integration into nanostructured environments. Photonics encompasses a multidisciplinary subset of those directions, where 2D materials contribute remarkable nonlinearities, long-lived and ultraconfined polaritons, strong excitons, topological and chiral effects, susceptibility to external stimuli, accessibility, robustness, and a completely new range of photonic materials based on layer stacking, gating, and the formation of moire patterns. These properties are being leveraged to develop applications in electro-optical modulation, light emission and detection, imaging and metasurfaces, integrated optics, sensing, and quantum physics across a broad spectral range extending from the far-infrared to the ultraviolet, as well as enabling hybridization with spin and momentum textures of electronic band structures and magnetic degrees of freedom. The rapid expansion of photonics with 2D materials as a dynamic research arena is yielding breakthroughs, which this Roadmap summarizes while identifying challenges and opportunities for future goals and how to meet them through a wide collection of topical sections prepared by leading practitioners.
| Item Type: | Article |
|---|---|
| Uncontrolled Keywords: | ORBITAL ANGULAR-MOMENTUM; HEXAGONAL BORON-NITRIDE; TRANSITION-METAL DICHALCOGENIDES; SURFACE-PLASMON POLARITONS; CHEMICAL-VAPOR-DEPOSITION; HIGH-HARMONIC GENERATION; SINGLE QUANTUM EMITTERS; DER-WAALS CRYSTALS; MOIR-AND-EACUTE; BLACK PHOSPHORUS; photonics with 2D materials; 2D polaritons; excitons in van der Waals materials; layer stacking and moire photonics; nonlinear optics; electro-optical modulation; quantum photonics |
| Subjects: | 500 Science > 530 Physics |
| Divisions: | Physics > Institute of Theroretical Physics Regensburg Center for UltrafastNanoscopy (RUN) |
| Depositing User: | Dr. Gernot Deinzer |
| Date Deposited: | 23 Mar 2026 11:09 |
| Last Modified: | 23 Mar 2026 11:09 |
| URI: | https://pred.uni-regensburg.de/id/eprint/68108 |
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