A Universal Approach to Nanophotonic Inverse Design through Reinforcement Learning

Butz M; Leifhelm A; Becker M; Risse B; Schuck C

Research article in edited proceedings (conference) | Peer reviewed

Abstract

We present a novel method to perform universal black-box optimization of pixel-discrete nanophotonic devices based on reinforcement learning. We demonstrate the capabilities of our method for a silicon-on-insulator waveguide-mode converter with > 95\% conversion efficiency.

Details about the publication

PublisherOptica Publishing Group
Book titleCLEO 2023, paper STh4G.3
Page rangeSTh4G.3-STh4G.3
Publishing companyOptica
Place of publicationSan Jose
StatusPublished
Release year2023
Language in which the publication is writtenEnglish
ConferenceCLEO: Science and Innovations 2023, San Jose, United States
DOI10.1364/CLEO_SI.2023.STh4G.3
Link to the full texthttps://opg.optica.org/abstract.cfm?uri=CLEO_SI-2023-STh4G.3
KeywordsEffective refractive index, Evanescent wave coupling, Inverse problems, Mode conversion, Neural networks, Stochastic processes

Authors from the University of Münster

Becker, Marlon
Professorship of Geoinformatics for Sustainable Development (Prof. Risse)
Butz, Marco
Junior professorship for integration and manipulation of quantum emitters (Prof. Schuck)
Risse, Benjamin
Professorship of Geoinformatics for Sustainable Development (Prof. Risse)
Schuck, Carsten
Junior professorship for integration and manipulation of quantum emitters (Prof. Schuck)