Novel Nested Cross-Coupled Microring Resonator Architecture for Optical Sensors and Optical Communication Networks Applications

We introduce and analyze a novel optical resonator architecture designed for optical sensors and networks. Our theoretical model, supported by our derived equations, aligns closely with our numerical simulations, confirming the expected resonance conditions. Through circuit simulations, we successfully replicated eight distinct intensity and phase response profiles, further validating the design. Our preliminary results demonstrate the architecture’s strong potential for advanced optical sensing and network applications, with key features such as resonance dips, phase variations, and peak splitting enhancing its versatility. Additionally, our observations of "slow light" effects in the group delay indicate promising benefits. Future works will focus on experimental validation and optimization for seamless integration into advanced optical sensor and network technologies

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Publication Details

Published
2025-05-20
DOI
https://doi.org/10.1109/wocc63563.2025.11082245
Citations
2
Primary Topic
Photonic and Optical Devices
Type
article
Field-Weighted Citation Impact
1.46
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article

Novel Nested Cross-Coupled Microring Resonator Architecture for Optical Sensors and Optical Communication Networks Applications

Benjamin B. Dingel, Jennifer C. Dela Cruz, Mae M. Garcillanosa, Wang Sy
2 citations
Photonic and Optical Devices
1.46
article

Novel Nested Cross-Coupled Microring Resonator Architecture for Optical Sensors and Optical Communication Networks Applications

Benjamin B. Dingel, Jennifer C. Dela Cruz, Mae M. Garcillanosa, Wang Sy
article en
2 citations

Abstract

We introduce and analyze a novel optical resonator architecture designed for optical sensors and networks. Our theoretical model, supported by our derived equations, aligns closely with our numerical simulations, confirming the expected resonance conditions. Through circuit simulations, we successfully replicated eight distinct intensity and phase response profiles, further validating the design. Our preliminary results demonstrate the architecture’s strong potential for advanced optical sensing and network applications, with key features such as resonance dips, phase variations, and peak splitting enhancing its versatility. Additionally, our observations of "slow light" effects in the group delay indicate promising benefits. Future works will focus on experimental validation and optimization for seamless integration into advanced optical sensor and network technologies

Mapúa University (PH), Ateneo de Manila University (PH)
Affordable and clean energy
Openalex Percentile: Top 16%
Photonic and Optical Devices
1.46
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