Wideband Reconfigurable Multifunctional Analogue Photonic Chip Based on Planar Waveguides

ABSTRACT Wideband reconfigurable multifunctional analogue photonic chip using planar waveguides is proposed and analysed. A variety of planar Bragg gratings (PBGs) are designed and optimised to achieve three functions of fractional Hilbert transform (FHT), optical integration (OI) and optical differentiation (OD) based on the reflection spectrum. We firstly designed the unit chip implementation to verify the fractional‐order tunable HT and then integrated the multifunctional units with cascaded MZIs into a single chip. The switching reconfiguration of multiple functions was achieved by optical phase modulation. Finally, we performed the analysis of femtosecond optical pulses to verify the processing effect of ultrafast photonic simulation and computation. The proposed chip achieves the operating bandwidth beyond 160 GHz comprehensively. The root mean squared errors (RMSEs) of the multifunctional temporal optical pulse processing are below 3%. This provides a potential path for ultrafast all‐optical signal processing in microwave photonics.

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Publication Details

Journal
IET Optoelectronics
Published
2025-01-01
DOI
https://doi.org/10.1049/ote2.70011
Primary Topic
Photonic and Optical Devices
Type
article
Field-Weighted Citation Impact
0.00

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Wideband Reconfigurable Multifunctional Analogue Photonic Chip Based on Planar Waveguides

Lili Peng, Qingping Hu, Ming Zhou, Chaotan Sima et al.
IET Optoelectronics
Photonic and Optical Devices
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Wideband Reconfigurable Multifunctional Analogue Photonic Chip Based on Planar Waveguides

Lili Peng, Qingping Hu, Ming Zhou, Chaotan Sima, Yu Sun, Lihua Wang
article en

Abstract

ABSTRACT Wideband reconfigurable multifunctional analogue photonic chip using planar waveguides is proposed and analysed. A variety of planar Bragg gratings (PBGs) are designed and optimised to achieve three functions of fractional Hilbert transform (FHT), optical integration (OI) and optical differentiation (OD) based on the reflection spectrum. We firstly designed the unit chip implementation to verify the fractional‐order tunable HT and then integrated the multifunctional units with cascaded MZIs into a single chip. The switching reconfiguration of multiple functions was achieved by optical phase modulation. Finally, we performed the analysis of femtosecond optical pulses to verify the processing effect of ultrafast photonic simulation and computation. The proposed chip achieves the operating bandwidth beyond 160 GHz comprehensively. The root mean squared errors (RMSEs) of the multifunctional temporal optical pulse processing are below 3%. This provides a potential path for ultrafast all‐optical signal processing in microwave photonics.

IET OptoelectronicsVol. 19(1)
Naval University of Engineering (CN), Yangtze Optical Electronic (China) (CN), Shangqiu Institute of Technology (CN), San’an Optoelectronics (China) (CN), Wuhan National Laboratory for Optoelectronics (CN)
National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 82%
Photonic and Optical Devices
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