Strong-field drivers based on high-energy soliton dynamics

Optical soliton dynamics in gas-filled hollow-core fibres enable the generation of self-compressed few- to sub-cycle pulses, and phase-matched dispersive wave emission from the visible to ultraviolet spectral region. We discuss scaling this concept to the multi-mJ pulse energy range, obtaining intense driving pulses for strong-field experiments. In addition to producing high peak power ultraviolet to visible pulses, soliton dynamics can be scaled to infrared wavelengths which are relevant to high cut-off high-harmonic generation.

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Publication Details

Published
2025-06-06
DOI
https://doi.org/10.1117/12.3058276
Primary Topic
Magnetic confinement fusion research
Type
article
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article

Strong-field drivers based on high-energy soliton dynamics

Νικολέτα Κωτσίνα, Martin Gebhardt, Christian Brahms, John C. Travers et al.
Magnetic confinement fusion research
article

Strong-field drivers based on high-energy soliton dynamics

Νικολέτα Κωτσίνα, Martin Gebhardt, Christian Brahms, John C. Travers, Joleik Nordmann, Teodora Grigorova, Michael Heynck
article en

Abstract

Optical soliton dynamics in gas-filled hollow-core fibres enable the generation of self-compressed few- to sub-cycle pulses, and phase-matched dispersive wave emission from the visible to ultraviolet spectral region. We discuss scaling this concept to the multi-mJ pulse energy range, obtaining intense driving pulses for strong-field experiments. In addition to producing high peak power ultraviolet to visible pulses, soliton dynamics can be scaled to infrared wavelengths which are relevant to high cut-off high-harmonic generation.

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Magnetic confinement fusion research
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