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Factor 30 Pulse Compression by Hybrid Multipass Multiplate Spectral Broadening
- Ultrafast Science Vol. 2, Issue 1, (2022)
- Affiliations：
a Deutsches Elektronen-Synchrotron DESY, Notkestrasse 85, 22607 Hamburg, Germanyb Helmholtz Institute Jena, Fröbelstieg 3, 07743 Jena, Germanyc GSI Helmholtzzentrum für Schwerionenforschung GmbH, Planckstrasse 1, 64291 Darmstadt, Germanyd FFI (Norwegian Defence Research Establishment), P.O. Box 25, NO- Kjeller,Norway,2027
- Author bio：
- Funds：We thank DESY (Hamburg, Germany), a member of the Helmholtz Association HGF, for the provision of experimental facilities.
DOI：10.34133/2022/9754919
CLC：Published：2022，
- Accepted：
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Marcus Seidel, Prannay Balla, Chen Li, Gunnar Arisholm, Lutz Winkelmann, Ingmar Hartl, and Christoph M. Heyl. 2022: Factor 30 Pulse Compression by Hybrid Multipass Multiplate Spectral Broadening. 超快科学, 2022(1).
Marcus Seidel, Prannay Balla, Chen Li, Gunnar Arisholm, Lutz Winkelmann, Ingmar Hartl, and Christoph M. Heyl. 2022: Factor 30 Pulse Compression by Hybrid Multipass Multiplate Spectral Broadening. Ultrafast Science, 2022(1).
Marcus Seidel, Prannay Balla, Chen Li, Gunnar Arisholm, Lutz Winkelmann, Ingmar Hartl, and Christoph M. Heyl. 2022: Factor 30 Pulse Compression by Hybrid Multipass Multiplate Spectral Broadening. 超快科学, 2022(1). DOI： 10.34133/2022/9754919
Marcus Seidel, Prannay Balla, Chen Li, Gunnar Arisholm, Lutz Winkelmann, Ingmar Hartl, and Christoph M. Heyl. 2022: Factor 30 Pulse Compression by Hybrid Multipass Multiplate Spectral Broadening. Ultrafast Science, 2022(1). DOI： 10.34133/2022/9754919
摘要
As ultrafast laser technology advances towards ever higher peak and average powers
generating sub-50 fs pulses from laser architectures that exhibit best power-scaling capabilities remains a major challenge. Here
we present a very compact and highly robust method to compress 1.24 ps pulses to 39 fs by means of only a single spectral broadening stage which neither requires vacuum parts nor custom-made optics. Our approach is based on the hybridization of the multiplate continuum and the multipass cell spectral broadening techniques. Their combination leads to significantly higher spectral broadening factors in bulk material than what has been reported from either method alone. Moreover
our approach efficiently suppresses adverse features of single-pass bulk spectral broadening. We use a burst-mode Yb:YAG laser emitting pulses with 80 MW peak power that are enhanced to more than 1 GW after postcompression. With only 0.19% rms pulse-to-pulse energy fluctuations
the technique exhibits excellent stability. Furthermore
we have measured state-of-the-art spectral-spatial homogeneity and good beam quality of M^2=1.2 up to a spectral broadening factor of 30. Due to the method’s simplicity
compactness
and scalability
it is highly attractive for turning a picosecond laser into an ultrafast light source that generates pulses of only a few tens of femtoseconds duration.
Abstract
As ultrafast laser technology advances towards ever higher peak and average powers
generating sub-50 fs pulses from laser architectures that exhibit best power-scaling capabilities remains a major challenge. Here
we present a very compact and highly robust method to compress 1.24 ps pulses to 39 fs by means of only a single spectral broadening stage which neither requires vacuum parts nor custom-made optics. Our approach is based on the hybridization of the multiplate continuum and the multipass cell spectral broadening techniques. Their combination leads to significantly higher spectral broadening factors in bulk material than what has been reported from either method alone. Moreover
our approach efficiently suppresses adverse features of single-pass bulk spectral broadening. We use a burst-mode Yb:YAG laser emitting pulses with 80 MW peak power that are enhanced to more than 1 GW after postcompression. With only 0.19% rms pulse-to-pulse energy fluctuations
the technique exhibits excellent stability. Furthermore
we have measured state-of-the-art spectral-spatial homogeneity and good beam quality of M^2=1.2 up to a spectral broadening factor of 30. Due to the method’s simplicity
compactness
and scalability
it is highly attractive for turning a picosecond laser into an ultrafast light source that generates pulses of only a few tens of femtoseconds duration.
关键词
ultrafast lasers Nonlinear optics pulse-compression multi-pass cell multi-plate continuum
Keywords
ultrafast lasers Nonlinear optics pulse-compression multi-pass cell multi-plate continuum
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