1064nm Laser CL1064-300mJ-SSL010
Crylink's 1064nm lasers include 1064nm actively Q-switched subnanosecond lasers, 1064nm passively Q-switched subnanosecond lasers, 1064nm single-frequency solid-state lasers and 1064nm single-mode narrow-line optical lasers. The 1064nm narrow-linewidth laser system is mainly used in fluorescence spectrometers. The 1064nm passively Q-switched subnanosecond laser is mainly used for Doppler wind measurement, underwater imaging, point-cloud imaging lidar, aerosol lidar and laser remote sensing. The 1064nm passively Q-switched subnanosecond laser is also mainly used for terahertz generation. The 1064nm single-mode narrow-line optical laser is mainly used in Raman spectroscopy and laser particle-size analyzers. The single-frequency laser series includes continuous-wave seed sources, continuous-wave amplifiers with frequency doublers and high-energy solid-state lasers. Nonplanar ring-cavity technology, resonance detection and external-cavity resonant frequency doubling provide multiband products covering narrow-linewidth seed generation, amplification and nonlinear frequency conversion. Advanced optomechanical and thermal integration and automatic electronic control support reliability and stability. Applications include Doppler wind lidar, laser debris observation and laser remote sensing. Advantages include high spectral performance for fine spectral analysis, high-quality seed injection and power amplification, resonance detection to ensure single-frequency operation of every pulse, and frequency locking and stabilization. High-energy single-frequency solid-state and fiber lasers cover 1064nm, 532nm, 355nm and 1.5um bands. The highly integrated systems are easy to operate and provide real-time monitoring and recording of laser status, fault alarms and self-protection. 1064nm single-frequency pulsed solid-state laser.
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Overview
Specifications
| Parameter | Value |
|---|---|
| Energy [@1064nm] | 300 mJ |
| Energy Stability | ＜2.5% |
| Pulse Width | ＜10 ns |
| Repetition Rate | 1-200 Hz |
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