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Figure 2: The output result of a single cavity dual comb. (IMAGE)

Ultrafast Science

Figure 2: The output result of a single cavity dual comb.

Caption

The output result of a single cavity dual comb.

Credit

Ultrafast Science

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Credit must be given to the creator.

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CC BY

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Media Contact

Pan Zhao
Ultrafast Science
zhaopan@opt.ac.cn



More on this News Release

Deep ultraviolet dual-comb from a thin-disk laser

Ultrafast Science

DOI
10.34133/ultrafastscience.0087

Keywords

  • /Applied sciences and engineering/Engineering/Electrical engineering/Electrical power/Electrical power generation
  • /Physical sciences/Physics/Energy/Radiation/Ultraviolet radiation
  • /Physical sciences/Physics/Plasma physics/Plasma parameters/Plasma frequency
  • /Physical sciences/Physics/Mechanics/Classical mechanics/Wave mechanics/Electronic coherence
  • /Research methods/Spectroscopy/Fluorescence spectroscopy

Additional Multimedia

Figure 2: The output result of a single cavity dual comb.
Figure 2: The output result of a single cavity dual comb.
Figure 3: Noise characteristics of the laser in free-running mode.
Figure 3: Noise characteristics of the laser in free-running mode.
Figure 4: (a) DUV dual-comb spectrum. (b) DUV dual-comb beat-note signal and (c) DUV dual comb interference beat signal acquired within the RF range of 0-400 kHz.
Figure 4: (a) DUV dual-comb spectrum. (b) DUV dual-comb beat-note signal and (c) DUV dual comb interference beat signal acquired within the RF range of 0-400 kHz.
Figure 5: Prospect of (a) XUV dual-comb and (b) THz dual-comb driven by the thin-disk single-cavity Yb:YAG laser.
Figure 5: Prospect of (a) XUV dual-comb and (b) THz dual-comb driven by the thin-disk single-cavity Yb:YAG laser.

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