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1.0 μm Frequency-Stabilized Laser Seed Source

The 1.0 μm frequency-stabilized single-frequency fiber laser is designed for high-end applications such as precision interferometric imaging, ultra-long baseline measurement, and fiber sensing networks. It adopts narrow-linewidth single-frequency laser technology combined with a high-precision frequency stabilization control scheme, achieving extremely low frequency drift, excellent long-term coherence, and outstanding wavelength repeatability. It can significantly improve system signal-to-noise ratio and measurement resolution, suppress phase noise accumulation, and ensure stable output even during long-term operation and under harsh environmental conditions.

Product Features

Ultra-Stable Frequency Characteristics
Exceptional Coherence
Intelligent Frequency Stabilization System

Typical Applications

Precision Interferometric Imaging
Ultra-Long Baseline Measurement
Fiber Sensing Networks

Technical ParameterUnitTechnical Specification
MinTypicalMax
Wavelength Rangenm 980–1120 
Laser Mode/ Single Longitudinal Mode, Continuous Wave 
Output PowermW50 100
LinewidthkHz 10 
Optical Signal-to-Noise RatiodB >60 
Relative Intensity NoisedB/Hz @ 1MHz< −120
Output Frequency DriftMHz @ 1h< 1
Output Power Adjustment%10/100
Wavelength Tuning Rangepm 600 
Polarization Type/Linear Polarization
Polarization Extinction RatiodB 20 
Beam Quality/M² < 1.2
Operating VoltageVDC12
Power ConsumptionW20
Operating Temperature°C−10 45
Storage Temperature°C−40 70
Output Fiber Type/PM980 / HI-1060
Output Fiber Lengthm0.6
Output Fiber Connector/FC/APC, Optional
Dimensionsmm175 (L) × 140 (W) × 25 (H)

The 1.0 μm frequency-stabilized single-frequency fiber laser is designed for high-end applications such as precision interferometric imaging, ultra-long baseline measurement, and fiber sensing networks. It adopts narrow-linewidth single-frequency laser technology combined with a high-precision frequency stabilization control scheme, achieving extremely low frequency drift, excellent long-term coherence, and outstanding wavelength repeatability. It can significantly improve system signal-to-noise ratio and measurement resolution, suppress phase noise accumulation, and ensure stable output even during long-term operation and under harsh environmental conditions.

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