Continuous-wave optical parametric amplification in photonic integrated circuits

Optical parametric amplifiers (OPAs) utilize the nonlinearities of optical materials for gain generation, enabling signal amplification across a wide range of wavelengths, operating unidirectionally, and facilitating very large optical gain over a substantial bandwidth and noise-less, i.e. phase-sensitive optical amplification. Despite the marquee breakthroughs achieved with highly nonlinear optical fibers in the early 2000s, commercial adoption has been hampered by the requirements for very long fiber length, mitigation of parasitic nonlinearities, and high pump powers. Photonic integrated waveguides combine much stronger optical confinement with a stronger Kerr nonlinearity and the ability to precisely low engineer the optical dispersion over a wide wavelength range yet have suffered from high linear and nonlinear optical propagation losses and low power handling capacity, mandating pulsed operation. In this presentation, I will review recent work on the breakthrough of achieving strong, broadband, and time-continuous travelling wave parametric amplification in photonic integrated circuits based on silicon nitride and gallium phosphide.

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Published
2025-03-19
DOI
https://doi.org/10.1117/12.3044827
Primary Topic
Optical Network Technologies
Type
article
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article

Continuous-wave optical parametric amplification in photonic integrated circuits

Johann Riemensberger, Mikhail Churaev, Paul Seidler, Tobias J. Kippenberg et al.
Optical Network Technologies
article

Continuous-wave optical parametric amplification in photonic integrated circuits

Johann Riemensberger, Mikhail Churaev, Paul Seidler, Tobias J. Kippenberg, Alisa Davydova, Alberto Nardi, Nikolai Kuznetsov
article en

Abstract

Optical parametric amplifiers (OPAs) utilize the nonlinearities of optical materials for gain generation, enabling signal amplification across a wide range of wavelengths, operating unidirectionally, and facilitating very large optical gain over a substantial bandwidth and noise-less, i.e. phase-sensitive optical amplification. Despite the marquee breakthroughs achieved with highly nonlinear optical fibers in the early 2000s, commercial adoption has been hampered by the requirements for very long fiber length, mitigation of parasitic nonlinearities, and high pump powers. Photonic integrated waveguides combine much stronger optical confinement with a stronger Kerr nonlinearity and the ability to precisely low engineer the optical dispersion over a wide wavelength range yet have suffered from high linear and nonlinear optical propagation losses and low power handling capacity, mandating pulsed operation. In this presentation, I will review recent work on the breakthrough of achieving strong, broadband, and time-continuous travelling wave parametric amplification in photonic integrated circuits based on silicon nitride and gallium phosphide.

Norwegian University of Science and Technology (NO), IBM Research - Zurich (CH), École Polytechnique Fédérale de Lausanne (CH)
Affordable and clean energy
Openalex Percentile: Top 96%
Optical Network Technologies
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