Conference paper
Fano Resonances for Realizing Compact and Low Energy Consumption Photonic Switches
We present our recent experimental work involving nanocavities which enable efficient light-matter interaction in small optical mode volumes. To achieve this, we investigated photonic crystal membrane platforms for designing high-quality (Q) factor nanocavities and efficient planar waveguides. Particularly, we discuss waveguide-nanocavity coupled systems for realization of asymmetric Fano resonances which are characterized by having transmission maximum and minimum in close spectral separation (~1nm) suitable for optical switching applications.
Language: | English |
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Publisher: | IEEE |
Year: | 2018 |
Pages: | 1-4 |
Proceedings: | 2018 20th International Conference on Transparent Optical Networks (ICTON) |
ISBN: | 1538666049 , 1538666057 , 1538666065 , 9781538666043 , 9781538666050 and 9781538666067 |
ISSN: | 21612064 and 21612056 |
Types: | Conference paper |
DOI: | 10.1109/ICTON.2018.8473749 |
Fano resonances Integrated optics Nonlinear optics Optical signal processing Optical switches Optical waveguides Photonic crystals Photonics Q-factor all-optical switching asymmetric Fano resonances high-quality factor nanocavity design light-matter interaction efficiency low energy consumption photonic switches nanophotonics nonlinear optics optical couplers optical design techniques optical mode volumes optical planar waveguides optical switches optical switching applications photonic crystal membrane platforms photonic crystals planar waveguide efficiency radiation pressure waveguide-nanocavity coupled systems