A synchronized VUV light source based on high-order harmonic generation at FLASH

Publikation: Beitrag in FachzeitschriftArtikelForschungPeer-Review

Autoren

  • Elisa Appi
  • Christina C. Papadopoulou
  • Jose Louise Mapa
  • Nishad Wesavkar
  • Christoph Jusko
  • Philip Mosel
  • Skirmantas Ališauskas
  • Tino Lang
  • Christoph M. Heyl
  • Bastian Manschwetus
  • Maciej Brachmanski
  • Markus Braune
  • Hannes Lindenblatt
  • Florian Trost
  • Severin Meister
  • Patrizia Schoch
  • Rolf Treusch
  • Robert Moshammer
  • Ingmar Hartl
  • Uwe Morgner
  • Milutin Kovacev

Externe Organisationen

  • Deutsches Elektronen-Synchrotron (DESY)
  • Helmholtz-Institut Jena
  • Max-Planck-Institut für Kernphysik
Forschungs-netzwerk anzeigen

Details

OriginalspracheEnglisch
Aufsatznummer6867
FachzeitschriftScientific Reports
Jahrgang10
Ausgabenummer1
PublikationsstatusVeröffentlicht - 22 Apr. 2020

Abstract

Ultrafast measurements in the extreme ultraviolet (XUV) spectral region targeting femtosecond timescales rely until today on two complementary XUV laser sources: free electron lasers (FELs) and high-harmonic generation (HHG) based sources. The combination of these two source types was until recently not realized. The complementary properties of both sources including broad bandwidth, high pulse energy, narrowband tunability and femtosecond timing, open new opportunities for two-color pump-probe studies. Here we show first results from the commissioning of a high-harmonic beamline that is fully synchronized with the free-electron laser FLASH, installed at beamline FL26 with permanent end-station including a reaction microscope (REMI). An optical parametric amplifier synchronized with the FEL burst mode drives the HHG process. First commissioning tests including electron momentum measurements using REMI, demonstrate long-term stability of the HHG source over more than 14 hours. This realization of the combination of these light sources will open new opportunities for time-resolved studies targeting different science cases including core-level ionization dynamics or the electron dynamics during the transformation of a molecule within a chemical reaction probed on femtosecond timescales in the ultraviolet to soft X-ray spectral region.

ASJC Scopus Sachgebiete

Zitieren

A synchronized VUV light source based on high-order harmonic generation at FLASH. / Appi, Elisa; Papadopoulou, Christina C.; Mapa, Jose Louise et al.
in: Scientific Reports, Jahrgang 10, Nr. 1, 6867, 22.04.2020.

Publikation: Beitrag in FachzeitschriftArtikelForschungPeer-Review

Appi, E, Papadopoulou, CC, Mapa, JL, Wesavkar, N, Jusko, C, Mosel, P, Ališauskas, S, Lang, T, Heyl, CM, Manschwetus, B, Brachmanski, M, Braune, M, Lindenblatt, H, Trost, F, Meister, S, Schoch, P, Treusch, R, Moshammer, R, Hartl, I, Morgner, U & Kovacev, M 2020, 'A synchronized VUV light source based on high-order harmonic generation at FLASH', Scientific Reports, Jg. 10, Nr. 1, 6867. https://doi.org/10.1038/s41598-020-63019-2
Appi, E., Papadopoulou, C. C., Mapa, J. L., Wesavkar, N., Jusko, C., Mosel, P., Ališauskas, S., Lang, T., Heyl, C. M., Manschwetus, B., Brachmanski, M., Braune, M., Lindenblatt, H., Trost, F., Meister, S., Schoch, P., Treusch, R., Moshammer, R., Hartl, I., ... Kovacev, M. (2020). A synchronized VUV light source based on high-order harmonic generation at FLASH. Scientific Reports, 10(1), Artikel 6867. https://doi.org/10.1038/s41598-020-63019-2
Appi E, Papadopoulou CC, Mapa JL, Wesavkar N, Jusko C, Mosel P et al. A synchronized VUV light source based on high-order harmonic generation at FLASH. Scientific Reports. 2020 Apr 22;10(1):6867. doi: 10.1038/s41598-020-63019-2
Appi, Elisa ; Papadopoulou, Christina C. ; Mapa, Jose Louise et al. / A synchronized VUV light source based on high-order harmonic generation at FLASH. in: Scientific Reports. 2020 ; Jahrgang 10, Nr. 1.
Download
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title = "A synchronized VUV light source based on high-order harmonic generation at FLASH",
abstract = "Ultrafast measurements in the extreme ultraviolet (XUV) spectral region targeting femtosecond timescales rely until today on two complementary XUV laser sources: free electron lasers (FELs) and high-harmonic generation (HHG) based sources. The combination of these two source types was until recently not realized. The complementary properties of both sources including broad bandwidth, high pulse energy, narrowband tunability and femtosecond timing, open new opportunities for two-color pump-probe studies. Here we show first results from the commissioning of a high-harmonic beamline that is fully synchronized with the free-electron laser FLASH, installed at beamline FL26 with permanent end-station including a reaction microscope (REMI). An optical parametric amplifier synchronized with the FEL burst mode drives the HHG process. First commissioning tests including electron momentum measurements using REMI, demonstrate long-term stability of the HHG source over more than 14 hours. This realization of the combination of these light sources will open new opportunities for time-resolved studies targeting different science cases including core-level ionization dynamics or the electron dynamics during the transformation of a molecule within a chemical reaction probed on femtosecond timescales in the ultraviolet to soft X-ray spectral region.",
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note = "The authors would like to thank Francesca Calegari, Andrea Trabattoni, Andrea Cartella, Lorenzo Colaizzi, Daniel Rivas and Rene Wagner for their assistance and fruitful discussions. We acknowledge funding from the BMBF through the project “Synchrone VUV-Lichtquelle am FLASH II”, from DESY, LUH and MPIK. The publication of this article was funded by the Open Access Fund of the Leibniz Universit{\"a}t Hannover.",
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T1 - A synchronized VUV light source based on high-order harmonic generation at FLASH

AU - Appi, Elisa

AU - Papadopoulou, Christina C.

AU - Mapa, Jose Louise

AU - Wesavkar, Nishad

AU - Jusko, Christoph

AU - Mosel, Philip

AU - Ališauskas, Skirmantas

AU - Lang, Tino

AU - Heyl, Christoph M.

AU - Manschwetus, Bastian

AU - Brachmanski, Maciej

AU - Braune, Markus

AU - Lindenblatt, Hannes

AU - Trost, Florian

AU - Meister, Severin

AU - Schoch, Patrizia

AU - Treusch, Rolf

AU - Moshammer, Robert

AU - Hartl, Ingmar

AU - Morgner, Uwe

AU - Kovacev, Milutin

N1 - The authors would like to thank Francesca Calegari, Andrea Trabattoni, Andrea Cartella, Lorenzo Colaizzi, Daniel Rivas and Rene Wagner for their assistance and fruitful discussions. We acknowledge funding from the BMBF through the project “Synchrone VUV-Lichtquelle am FLASH II”, from DESY, LUH and MPIK. The publication of this article was funded by the Open Access Fund of the Leibniz Universität Hannover.

PY - 2020/4/22

Y1 - 2020/4/22

N2 - Ultrafast measurements in the extreme ultraviolet (XUV) spectral region targeting femtosecond timescales rely until today on two complementary XUV laser sources: free electron lasers (FELs) and high-harmonic generation (HHG) based sources. The combination of these two source types was until recently not realized. The complementary properties of both sources including broad bandwidth, high pulse energy, narrowband tunability and femtosecond timing, open new opportunities for two-color pump-probe studies. Here we show first results from the commissioning of a high-harmonic beamline that is fully synchronized with the free-electron laser FLASH, installed at beamline FL26 with permanent end-station including a reaction microscope (REMI). An optical parametric amplifier synchronized with the FEL burst mode drives the HHG process. First commissioning tests including electron momentum measurements using REMI, demonstrate long-term stability of the HHG source over more than 14 hours. This realization of the combination of these light sources will open new opportunities for time-resolved studies targeting different science cases including core-level ionization dynamics or the electron dynamics during the transformation of a molecule within a chemical reaction probed on femtosecond timescales in the ultraviolet to soft X-ray spectral region.

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VL - 10

JO - Scientific Reports

JF - Scientific Reports

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