Typical Applications
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Precision Measurement
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Coherent Communication
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Cold Atom Physics
25 Hz ultra-narrow linewidth single-frequency fiber laser is a high-performance laser light source. Its core features focus on ultra-narrow linewidth, single-frequency stability, and low-noise design, and it is mainly used in fields such as precision measurement, coherent communication, and cold-atom physics.
The 2 μm wavelength, kilowatt-class narrow-linewidth fiber laser is designed using a signal-modulated seed source, multi-stage MOPA amplification structure, and distributed pumping technology. It possesses fully independent intellectual property rights and achieves performance at the international advanced level. This laser can be applied in fields such as combustion diagnostics.
Phase-Modulated Linewidth Broadening
Kilowatt-Class Output
Combustion Diagnostics
Industrial Processing
Medical Applications
Designed specifically for precision magnetic detection, this laser operates at a wavelength of 1083 nm and employs advanced frequency-stabilization technology to ensure highly stable laser frequency, meeting the requirements for high-precision measurements.
It is suitable for applications such as quantum sensing, geomagnetic detection, and scientific research experiments, offering reliable performance and excellent stability. Its compact design allows for easy integration, providing a stable light source for high-end magnetic measurement applications and supporting accurate data acquisition and analysis.
High Frequency Stability
Low Noise
High Environmental Adaptability
Compact Structure
Stable Performance
Quantum Sensing
Geomagnetic Detection
The high-power light source for long-range high-resolution LiDAR is a laser system with fully independent intellectual property rights and performance reaching an internationally advanced level. It adopts a three-stage MOPA architecture and integrates high-efficiency laser power amplification, nonlinear effect suppression, noise suppression, and linewidth-narrowing technologies, achieving hundreds-of-watts output power with an ultra-narrow linewidth as low as the hundred-hertz level.
Hundreds-of-Watts High-Power Output
Noise Suppression Technology
Ultra-Narrow Linewidth
Ultra-Long Detection Range
Remote Sensing and Environmental Monitoring
Material Processing and Inspection
The frequency-stabilized laser for high-sensitivity sensing is specifically designed for applications such as precision measurement, optical sensing, and high-resolution spectroscopy. It employs narrow-linewidth single-frequency laser technology combined with a high-precision frequency stabilization scheme, achieving extremely low frequency drift and high-coherence output.
With its excellent power and wavelength (frequency) stability, the laser effectively enhances the signal-to-noise ratio and detection resolution of sensing systems, making it particularly suitable for weak signal detection and long-term data acquisition scenarios.
Dual Closed-Loop Frequency Stabilization System
Breakthrough Noise Suppression
Intelligent Environmental Compensation
Precision Measurement
Optical Sensing and High-Resolution Spectroscopy
The Compact Single-Frequency Fiber Laser is a single-frequency laser developed for portable devices. Through integrated design, the laser system is compressed into a small module while offering lightweight construction, low power consumption, and high stability.
Single-Frequency Laser Output
Low Power Consumption & High Efficiency
Excellent Stability
Precision Measurement and Sensing
Medical and Bio-Imaging
Coherent Communication
The broadband ultra-low-noise single-frequency fiber laser is designed based on a distributed Bragg reflector (DBR) resonator architecture, combined with multidimensional active and passive suppression techniques, achieving ultra-low relative intensity noise output across a wide bandwidth. This product not only provides narrow-linewidth single-frequency output but also features high power stability and low intensity noise, making it particularly suitable for high-precision coherent detection, distributed fiber sensing, precision interferometry, and other applications with extremely stringent noise requirements.