• Acta Optica Sinica
  • Vol. 39, Issue 1, 0126006 (2019)
Shaobo Fang1、* and Zhiyi Wei1、2、*
Author Affiliations
  • 1 Institute of Physics and Beijing National Laboratory for Condensed Matter Physics, Chinese Academy of Sciences, Beijing 100190, China
  • 2 University of Chinese Academy of Sciences, Beijing 100049, China
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    DOI: 10.3788/AOS201939.0126006 Cite this Article Set citation alerts
    Shaobo Fang, Zhiyi Wei. Sub-Optical-Cycle Coherent Waveform Synthesis[J]. Acta Optica Sinica, 2019, 39(1): 0126006 Copy Citation Text show less
    High-order harmonic spectrum (red) driven by sub-periodic “perfect” waveform.(a) Single active electron calculations;(b) full propagation calculations
    Fig. 1. High-order harmonic spectrum (red) driven by sub-periodic “perfect” waveform.(a) Single active electron calculations;(b) full propagation calculations
    Time-frequency domain relationship of Fourier transform limit pulses. (a) Mono-cycle pulse in time domain (inset: multi-cycle pulse in time and frequency domain); (b) mono-cycle pulse in frequency domain
    Fig. 2. Time-frequency domain relationship of Fourier transform limit pulses. (a) Mono-cycle pulse in time domain (inset: multi-cycle pulse in time and frequency domain); (b) mono-cycle pulse in frequency domain
    Supercontinuum generated by self-phase modulation
    Fig. 3. Supercontinuum generated by self-phase modulation
    Supercontinuum generated by induced-phase modulation
    Fig. 4. Supercontinuum generated by induced-phase modulation
    Multiple-thin-plate generated femtosecond supercontinuum
    Fig. 5. Multiple-thin-plate generated femtosecond supercontinuum
    (a) Layout diagram of seven fused silica thin plates and (b) supercontinuum after the laser beam propagated through seven fused silica thin plates (inset: the output beam profile taken at the collimating mirror; the center peak is saturated to show the structures of the rings)
    Fig. 6. (a) Layout diagram of seven fused silica thin plates and (b) supercontinuum after the laser beam propagated through seven fused silica thin plates (inset: the output beam profile taken at the collimating mirror; the center peak is saturated to show the structures of the rings)
    Passively CEP-stabilized white-light seed continuum generated in a YAG crystal pumped by the CEP-stable idler pulses[2,44]. (a) Supercontinuum spectrum; (b) photo of the experiment setup
    Fig. 7. Passively CEP-stabilized white-light seed continuum generated in a YAG crystal pumped by the CEP-stable idler pulses[2,44]. (a) Supercontinuum spectrum; (b) photo of the experiment setup
    Structural schematics. (a) Prism pair compressor; (b) grating pair compressor
    Fig. 8. Structural schematics. (a) Prism pair compressor; (b) grating pair compressor
    Schematic structure of chirped mirror
    Fig. 9. Schematic structure of chirped mirror
    Pulse shaping system schematic based on spatial light modulator
    Fig. 10. Pulse shaping system schematic based on spatial light modulator
    Synthesized electric field influenced by carrier-envelope phase and relative-envelope phase
    Fig. 11. Synthesized electric field influenced by carrier-envelope phase and relative-envelope phase
    CEP- and REP-controlled synthesized electric fields. (a) The optimum configuration, corresponding to the shortest synthesized waveform, and being a reference for the other configurations; (b) pure CEP slip by a quarter of the optical cycle; (c) delay of the pulse by a quarter of the optical cycle; (d) pure delay of the envelope by a quarter of the optical cycle
    Fig. 12. CEP- and REP-controlled synthesized electric fields. (a) The optimum configuration, corresponding to the shortest synthesized waveform, and being a reference for the other configurations; (b) pure CEP slip by a quarter of the optical cycle; (c) delay of the pulse by a quarter of the optical cycle; (d) pure delay of the envelope by a quarter of the optical cycle
    (a) BOC scheme diagram and (b) locking range
    Fig. 13. (a) BOC scheme diagram and (b) locking range
    Schematic and accuracy of spectral interference lock delay. (a) Schematic of the transient grating FROG apparatus; (b) temporal overlap to yield a single spectral fringe; (c) supercontinuum
    Fig. 14. Schematic and accuracy of spectral interference lock delay. (a) Schematic of the transient grating FROG apparatus; (b) temporal overlap to yield a single spectral fringe; (c) supercontinuum
    (a) Schematic and (b) accuracy of spectral interference lock delay
    Fig. 15. (a) Schematic and (b) accuracy of spectral interference lock delay