• High Power Laser Science and Engineering
  • Vol. 9, Issue 2, 02000e10 (2021)
Leonida A. Gizzi1、2、*, Luca Labate1、2、*, Federica Baffigi1, Fernando Brandi1, Giancarlo Bussolino1, Lorenzo Fulgentini1, Petra Köster1, and Daniele Palla1
Author Affiliations
  • 1Intense Laser Irradiation Laboratory (ILIL), Istituto Nazionale di Ottica - Consiglio Nazionale delle Ricerche (INO-CNR), Sede Secondaria di Pisa, 56124Pisa, Italy
  • 2Istituto Nazionale di Fisica Nucleare (INFN), Sezione di Pisa, 56127Pisa, Italy
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    DOI: 10.1017/hpl.2020.47 Cite this Article Set citation alerts
    Leonida A. Gizzi, Luca Labate, Federica Baffigi, Fernando Brandi, Giancarlo Bussolino, Lorenzo Fulgentini, Petra Köster, Daniele Palla. Overview and specifications of laser and target areas at the Intense Laser Irradiation Laboratory[J]. High Power Laser Science and Engineering, 2021, 9(2): 02000e10 Copy Citation Text show less
    Layout of the entire laboratory, including (from left) the control room, the ‘TW’ experimental area, the laser front-end room, the 220 TW amplifier room and the high-intensity target area.
    Fig. 1. Layout of the entire laboratory, including (from left) the control room, the ‘TW’ experimental area, the laser front-end room, the 220 TW amplifier room and the high-intensity target area.
    Layout of the ILIL-PW laser system, showing the front-end and the power amplifiers.
    Fig. 2. Layout of the ILIL-PW laser system, showing the front-end and the power amplifiers.
    Pulse energy after each pass in the final amplifier as obtained by numerical simulations. The two sets of points correspond to the full-power, 1 Hz operation mode (blue points) and to the reduced power, 5 Hz operation mode (orange points).
    Fig. 3. Pulse energy after each pass in the final amplifier as obtained by numerical simulations. The two sets of points correspond to the full-power, 1 Hz operation mode (blue points) and to the reduced power, 5 Hz operation mode (orange points).
    (a) 3D view and (b) side view of the compressor vacuum chamber.
    Fig. 4. (a) 3D view and (b) side view of the compressor vacuum chamber.
    (a) Sample spectra of the fully amplified main pulse before entering the compressor chamber. (b) Near-field burn paper image taken before compression at 3.3 J pulse energy.
    Fig. 5. (a) Sample spectra of the fully amplified main pulse before entering the compressor chamber. (b) Near-field burn paper image taken before compression at 3.3 J pulse energy.
    (a) Microscopic image of the far field taken with the long focusing optics. (b) Profiles across the vertical and horizontal directions.
    Fig. 6. (a) Microscopic image of the far field taken with the long focusing optics. (b) Profiles across the vertical and horizontal directions.
    Interface of the Wizzler diagnostic systems showing (top) spectral intensity and phase and (bottom) reconstructed temporal evolution of the pulse. The duration of the pulse is shown on the right.
    Fig. 7. Interface of the Wizzler diagnostic systems showing (top) spectral intensity and phase and (bottom) reconstructed temporal evolution of the pulse. The duration of the pulse is shown on the right.
    Cross-correlation curve showing the ASE contrast level of 10 and the petasecond-pedestal contrast level better than 10, up to 10 ps before the peak of the pulse.
    Fig. 8. Cross-correlation curve showing the ASE contrast level of 10 and the petasecond-pedestal contrast level better than 10, up to 10 ps before the peak of the pulse.
    Schematic layout of the target area showing the radiation shielding bunker and the beam transport from the compressor to the octagonal interaction chamber. Also shown are the two focusing configurations available as alternatives using the dedicated turning mirror. The red arrows along the beam-lines show the positions of dosimetric measurements (see Section 6).
    Fig. 9. Schematic layout of the target area showing the radiation shielding bunker and the beam transport from the compressor to the octagonal interaction chamber. Also shown are the two focusing configurations available as alternatives using the dedicated turning mirror. The red arrows along the beam-lines show the positions of dosimetric measurements (see Section 6).
    A view of the supporting structure of the shielding bunker.
    Fig. 10. A view of the supporting structure of the shielding bunker.
    (a) Side view and (b) top view of the interaction chamber.
    Fig. 11. (a) Side view and (b) top view of the interaction chamber.
    Plot of the beam pointing stability showing the angular deflection of the centroid of the focal spot for approximately 1000 images.
    Fig. 12. Plot of the beam pointing stability showing the angular deflection of the centroid of the focal spot for approximately 1000 images.
    longshort fastshort slow
    Independent channels4044
    Jitter<10 ns~2 ps~200 ps
    Rise time<1 ns~600 ps<1 ns
    Maximum delay to pulse1 ns~150 ns~30 ns
    Resolution10 μs250 fsn.a.
    Table 1. Available trigger signals for experiment diagnostics.
    Leonida A. Gizzi, Luca Labate, Federica Baffigi, Fernando Brandi, Giancarlo Bussolino, Lorenzo Fulgentini, Petra Köster, Daniele Palla. Overview and specifications of laser and target areas at the Intense Laser Irradiation Laboratory[J]. High Power Laser Science and Engineering, 2021, 9(2): 02000e10
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