Laser self-injection locking to fiber Fabry-Perot resonator for frequency comb generation

Fuente: arXiv
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Main Authors: Bourcier, Germain, Balac, Stephane, Lumeau, Julien, Moreau, Antonin, Bunel, Thomas, Mussot, Arnaud, Conforti, Matteo, Crozatier, Vincent, Llopis, Olivier, Fernandez, Arnaud
Format: Preprint
Published: 2025
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author Bourcier, Germain
Balac, Stephane
Lumeau, Julien
Moreau, Antonin
Bunel, Thomas
Mussot, Arnaud
Conforti, Matteo
Crozatier, Vincent
Llopis, Olivier
Fernandez, Arnaud
author_facet Bourcier, Germain
Balac, Stephane
Lumeau, Julien
Moreau, Antonin
Bunel, Thomas
Mussot, Arnaud
Conforti, Matteo
Crozatier, Vincent
Llopis, Olivier
Fernandez, Arnaud
contents This study demonstrates that self-injection locking (SIL) of a distributed feedback (DFB) laser to a high-Q fiber Fabry Perot (FFP) resonator, fabricated with highly nonlinear fiber, allows optical frequency combs (OFC) generation with a laser power as low as 100 mW. More precisely, cavity soliton (CS) regime has been observed in this configuration, along with other types of combs. The laser stabilization using SIL is described. Then the system's behavior is analyzed through modeling the laser's dynamics and comparing the model results to experimental tuning curve measurements. Our findings highlight the critical role of the initial phase of the fiber link between laser and FFP in determining the stability and effectiveness of the locking process. We explore the dynamics of the nonlinear SIL process while varying the laser current, revealing the transition from modulation instability to chaotic comb states, and eventually to soliton formation as the system moves from an effective blue-detuned to an effective red-detuned regime. Notably, the inclusion of self-phase modulation (SPM) in the SIL model predicts accessibility of the narrow soliton existence range. These results highlight the potential of SIL in FFP resonators for low-power, stable OFC generation, offering a promising path forward for practical applications.
format Preprint
id arxiv_https___arxiv_org_abs_2506_21081
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Laser self-injection locking to fiber Fabry-Perot resonator for frequency comb generation
Bourcier, Germain
Balac, Stephane
Lumeau, Julien
Moreau, Antonin
Bunel, Thomas
Mussot, Arnaud
Conforti, Matteo
Crozatier, Vincent
Llopis, Olivier
Fernandez, Arnaud
Optics
This study demonstrates that self-injection locking (SIL) of a distributed feedback (DFB) laser to a high-Q fiber Fabry Perot (FFP) resonator, fabricated with highly nonlinear fiber, allows optical frequency combs (OFC) generation with a laser power as low as 100 mW. More precisely, cavity soliton (CS) regime has been observed in this configuration, along with other types of combs. The laser stabilization using SIL is described. Then the system's behavior is analyzed through modeling the laser's dynamics and comparing the model results to experimental tuning curve measurements. Our findings highlight the critical role of the initial phase of the fiber link between laser and FFP in determining the stability and effectiveness of the locking process. We explore the dynamics of the nonlinear SIL process while varying the laser current, revealing the transition from modulation instability to chaotic comb states, and eventually to soliton formation as the system moves from an effective blue-detuned to an effective red-detuned regime. Notably, the inclusion of self-phase modulation (SPM) in the SIL model predicts accessibility of the narrow soliton existence range. These results highlight the potential of SIL in FFP resonators for low-power, stable OFC generation, offering a promising path forward for practical applications.
title Laser self-injection locking to fiber Fabry-Perot resonator for frequency comb generation
topic Optics
url https://arxiv.org/abs/2506.21081