532nm Laser CL532-150mJ-SSL006
Crylink's 532 nm lasers include laser dazzlers, 532nm actively Q-switched subnanosecond lasers, 532nm passively Q-switched subnanosecond lasers, 532nm single-frequency continuous-wave lasers and 532nm single-frequency solid-state lasers. Laser dazzlers are mainly used in counterterrorism and counterdemonstration settings. Narrow-linewidth lasers are mainly used for fluorescence spectroscopy. Single-frequency continuous-wave lasers are mainly used to pump titanium-sapphire lasers. Actively Q-switched subnanosecond lasers are mainly used for Doppler wind measurements, underwater imaging, point-cloud imaging lidar, aerosol lidar and laser remote sensing. Passively Q-switched subnanosecond lasers are mainly used to generate terahertz radiation. 532nm microchip lasers are mainly used for laser micromachining, time-resolved Raman spectroscopy, ultrasound imaging and laser-induced breakdown spectroscopy. Single-frequency solid-state lasers: the single-frequency series includes single-frequency continuous-wave seed sources, single-frequency continuous-wave amplification plus frequency doublers, and single-frequency high-energy solid-state lasers. Engineering technologies such as nonplanar ring cavities, resonance detection and external-cavity resonant frequency doubling provide a full-parameter, multiband product range covering narrow-linewidth seed sources, laser amplification and nonlinear frequency conversion. Advanced engineering design, including integrated optomechanical and thermal analysis and automatic electrical control system development, supports product reliability and stability. The series is widely used in lidar systems for Doppler wind measurements, laser debris observation and laser remote sensing. Its technical advantages include high spectral performance for fine spectral analysis, high-quality seed injection for excellent power amplification, resonance detection to ensure single-frequency operation in every pulse, and frequency locking and stabilization. A combined fiber and solid-state design provides 532nm green output >50W. The PDH frequency-locking technology enables a compact, stable and reliable structure. 532nm single-frequency pulsed solid-state laser.
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Overview
Specifications
| Parameter | Value |
|---|---|
| Energy | 150 mJ |
| Power stability | ＜2.5% |
| Pulse Width | ＜10 ns |
| Repetition Rate | 1-200 Hz |
| Spot diameter [@1/e2] | ～4.5 |
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