980nm | 20W High Power Polarization Insensitive Isolator (HI Series)

Specifications

Type Of The Device: Isolator
Operating Wavelength: 980 nm
Max Power: 20 W
Min Isolation: 25 dB
Center Wavelength (λc): 980 nm
Operating Wavelength Range: λc ± 10 nm
Min. Isolation, λc, 23 ℃, All Polarization StatesTyp.: 25 dB
Max. Average Optical Power: 20 W
Max. Peak Power For Ns Pulse: 10 kW
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Features

  • Center Wavelength: 980 nm, within a ±10 nm operating range
  • Typical Peak Isolation: 30 dB
  • Minimum Isolation: 25 dB at center wavelength, accommodating all polarization states
  • Typical and Maximum Insertion Loss: 0.8 dB and 1 dB respectively, ensuring efficient transmission
  • Return Loss: Minimum 45/45 dB, optimizing system performance by reducing reflections
  • Polarization Dependent Loss: Max 0.2 dB, highlighting its polarization insensitivity
  • Maximum Average Optical Power: 20 W
  • Maximum Peak Power for Nanosecond Pulses: 10 kW
  • Maximum Tensile Load: 5 N
  • Fiber Type: HI 1060 Fiber, tailored for high-performance applications

Customization Options:

  • Fiber Length: Standard at 1.0 m, with customization available
  • Handling Power: Options available for 3 W, 10 W, and 20 W, accommodating different application demands
  • Fiber Jacket: Choices include 250 μm Bare Fiber and 900 μm Loose Tube, among others
  • Connector Type: None standard with options available
  • Power Type: Suitable for both Pulse and Continuous Wave applications

Applications

  • Fiber Laser Systems: Essential for maintaining high-quality signal transmission in fiber lasers used in manufacturing, cutting, and engraving, where precise beam quality is crucial.
  • Telecommunications: Improves the performance of optical communication systems by ensuring stable signal integrity and reducing feedback, which is vital for long-distance and high-bandwidth communications.
  • Medical Instrumentation: Used in biomedical imaging and laser surgery systems where consistent and reliable laser output is necessary for accurate diagnostics and treatments.
  • Optical Sensing: Enhances the accuracy of optical sensors used in environmental monitoring and industrial automation by stabilizing the laser signal against external disturbances.
  • Research and Development: Provides a stable testing environment for experimental setups in photonics research, where controlled and reliable laser outputs are necessary for data integrity.
  • Industrial Metrology: Critical in precision measurement tools that rely on lasers, ensuring that the devices operate with high precision and reliability under various environmental conditions.