High Power Laser Science and Engineering, Volume. 12, Issue 6, 06000e92(2024)
Temporal waveform denoising using deep learning for injection laser systems of inertial confinement fusion high-power laser facilities Editors' Pick
Fig. 1. The temporal pulse shaping schematic in the SG-II-up high-power laser facility.
Fig. 2. The electrical waveform and temporal waveform in the pulse shaping unit: (a) the electrical waveform set by the AWG; (b) the temporal waveform collected at the front-end system.
Fig. 5. The progression of the loss function for both the training and validation sets.
Fig. 6. The simulated waveforms and corresponding denoising results obtained by the model: (a)–(c), (g)–(i) input waveforms; (d)–(f), (j)–(l) denoised waveforms and ideal waveforms.
Fig. 7. The simulated waveforms and corresponding denoising results obtained by the model: (a) input waveform; (b) output waveform of one model run and the ideal waveform; (c) output waveform of three model runs and the ideal waveform.
Fig. 8. Model performance with different numbers of calculations: (a) RMSE and SNR; (b) errors in the contrast of the waveforms; (c) time of the calculations.
Fig. 9. Comparison of complex input waveforms and denoised waveforms obtained by the model: (a)–(c) input waveforms; (d)–(f) denoised waveforms and ideal waveforms.
Fig. 10. The temporal waveforms of the experiment and corresponding denoising results obtained by the model: (a)–(c) input waveforms; (d)–(f) denoised waveforms.
Fig. 11. Different types of temporal waveforms of the experiment and corresponding denoising results obtained by the model: (a)–(c) input waveforms; (d)–(f) denoised waveforms.
Fig. 12. Electric waveforms with the same contrast set by the AWG.
Fig. 13. The temporal waveforms of the experiment and corresponding denoised results obtained by the model: (a) input waveforms; (b) denoised waveforms; (c) contrast of five denoised temporal waveforms.
|
|
|
Get Citation
Copy Citation Text
Wei Chen, Xinghua Lu, Wei Fan, Xiaochao Wang. Temporal waveform denoising using deep learning for injection laser systems of inertial confinement fusion high-power laser facilities[J]. High Power Laser Science and Engineering, 2024, 12(6): 06000e92
Category: Research Articles
Received: Jul. 26, 2024
Accepted: Aug. 27, 2024
Published Online: Jan. 6, 2025
The Author Email: Xinghua Lu (fanweil@siom.ac.cn)