Laser & Optoelectronics Progress, Volume. 61, Issue 3, 0319001(2024)
Influence of the Airy Pulse on Rogue Waves and its Regulation in a Supercontinuum (Invited)
Fig. 1. The finite energy Airy beam's self-accelerating intensity profile and schematic diagram of weak diffraction and self-healing properties. (a) Self-accelerating intensity profile; (b) schematic diagram of weak diffraction and self-healing properties
Fig. 2. The time-domain and frequency-domain evolution diagrams of the decelerated FEAP pumped into the fiber.(a)Time-domain evolution diagram;(b)frequency-domain evolution diagram
Fig. 3. The output pulse shape when the decelerated FEAP peak power changes in the range of 1000‒2500 W
Fig. 4. The output spectra when the decelerated FEAP peak power changes in the range of 1000‒2500 W
Fig. 5. Signal to noise ratio and coherence of decelerated FEAP spectra with different peak power. (a) Signal to noise ratio; (b) coherence
Fig. 6. The time-domain evolution of decelerated FEAP under five different initial chirps. (a) C = -2; (b) C = -0.3; (c) C = 0; (d) C = 0.5; (e) C = 2
Fig. 7. Signal to noise ratio and coherence of decelerated FEAP spectra with different initial chirps. (a) Signal to noise ratio; (b) coherence
Fig. 8. Statistical figure of output soliton peak power when the pulse width is 370 fs
Fig. 9. The maximum value of the peak power of the output soliton, the number of twice the average value, the number of more than twice the average value, and the proportion of the trailing region in the overall range of the peak power of the output soliton for 500 simulations with different pulse widths
Fig. 10. Signal to noise ratio and coherence of decelerated FEAP spectra with different pulse widths. (a) Signal to noise ratio; (b) coherence
Fig. 11. The maximum value of the peak power of the output soliton, the number of twice the average value, the number of more than twice the average value, and the proportion of the trailing region in the overall range of the peak power of the output soliton for 500 simulations with different truncation coefficients
Fig. 12. Signal to noise ratio and coherence of decelerated FEAP spectra with different truncation coefficients. (a) Signal to noise ratio; (b) coherence
Fig. 13. The maximum value of the peak power of the output soliton, the number of twice the average value, the number of more than twice the average value, and the proportion of the trailing region in the overall range of the peak power of the output soliton for 500 simulations with different distribution factors
Fig. 14. Gaussian fitting curves of peak power of output solitons under different distribution factors. (a) Without trailing; (b) with trailing
Fig. 15. Signal to noise ratio and coherence of decelerated FEAP spectra with different distribution factors. (a) Signal to noise ratio; (b) coherence
Fig. 16. The results of promoting the generation of RWs. (a) MOPSO optimization results, illustrated by the corresponding decelerated FEAP waveform; (b) simulation results under optimal parameters
Fig. 17. The results of suppressing the generation of RWs. (a) MOPSO optimization results, illustrated by the corresponding decelerated FEAP waveform; (b) simulation results under optimal parameters
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Shuo Liu, Congying Yin, Qun Zu, Yuhang Dong, Qi Li, Saili Zhao. Influence of the Airy Pulse on Rogue Waves and its Regulation in a Supercontinuum (Invited)[J]. Laser & Optoelectronics Progress, 2024, 61(3): 0319001
Category: Nonlinear Optics
Received: Aug. 28, 2023
Accepted: Oct. 16, 2023
Published Online: Mar. 7, 2024
The Author Email: Liu Shuo (liushuo@hebut.edu.cn)