Energy-managed soliton fiber laser

Mostafa I. Mohamed (), Aurélien Coillet and Philippe Grelu ()
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Mostafa I. Mohamed: Université de Bourgogne
Aurélien Coillet: Université de Bourgogne
Philippe Grelu: Université de Bourgogne

Nature Communications, 2024, vol. 15, issue 1, 1-10

Abstract: Abstract Ultrafast fiber lasers constitute a flexible platform to investigate new solitary wave concepts. To surpass the low energy limitation of the conventional solitons generated in standard telecom fibers, successive breakthroughs have promoted the usage of an important frequency chirping within fiber oscillators. This lead to original solitary wave regimes such as stretched-pulse, all-normal-dispersion, and self-similar dynamics. We here revisit ultrafast fiber lasers built from standard optical fibers featuring solely anomalous dispersion. We propose a new cavity design enhancing key dissipative effects with contained frequency chirping and demonstrate the generation of high energy pulses in the few-picoseconds regime. The involved intracavity dynamics blends conventional and dissipative soliton features in an unseen way with low- and high-energy propagation regions, allowing an increased flexibility and novel scalability prospects.

Date: 2024
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DOI: 10.1038/s41467-024-52954-7

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