Single-Mode Polarization-Insensitive TGG Fiber Isolator (532nm, 635nm, 780nm, 850nm)

Specifications

Type Of The Device: Isolator
Operating Wavelength: 850 nm
Max Power: 0.15 W
Min Isolation: 24 dB
Typical Isolation (23°C, All SOP): 28 dB
Insertion Loss (All SOP): 1.5 dB
PDL (Max.): 0.18 dB
PMD (Max.): 0.2 ps
Return Loss (Min.): 45 dB
Optical Power Handling (Max.): 150 mW
Package Dimension: Φ 24 mm × L 80 mm
Operating Temperature: 10 - 50 °C
Storage Temperature: 0 - 60 °C

Got questions about specs? Use the inquiry form to ask.

Document icon Download Data Sheet Download icon

Features

  • Wide Wavelength Range: Available in multiple wavelengths including 532nm, 635nm, 650nm, 780nm, 850nm, 980nm, 1030nm, and 1060nm, catering to diverse optical applications.
  • High Isolation: Typical isolation values range from 26dB to 30dB, ensuring minimal signal interference and enhanced performance.
  • Low Insertion Loss: Maximum insertion loss as low as 1.2dB, optimizing signal transmission efficiency.
  • Minimal Polarization Dependent Loss (PDL): PDL values as low as 0.15dB, ensuring stable performance across different polarization states.
  • Low Polarization Mode Dispersion (PMD): Maximum PMD of 0.2ps, supporting high-speed data transmission applications.
  • High Return Loss: Minimum return loss of 45dB, reducing back reflections and improving system integrity.
  • Robust Optical Power Handling: Capable of handling optical power up to 250mW, suitable for high-power applications.
  • Compact Design: Cylindrical package dimensions ranging from Φ21xL60mm to Φ24xL95mm, facilitating easy integration into various systems.
  • Temperature Resilience: Operating temperature range from 10°C to 50°C and storage range from 0°C to 60°C, ensuring reliability in varying environmental conditions.
  • Customizable Options: Custom configurations available for wavelength, fiber type, cable type, fiber length, connector type, and package options to meet specific application needs.

Applications

  • Telecommunications: Used in fiber optic communication systems to prevent back reflection and interference, ensuring signal integrity and efficiency.
  • Medical Equipment: Integrated into laser systems for surgery and diagnostics, protecting sensitive components from reflected laser light.
  • Medical Equipment: Applied in surgical and diagnostic laser setups to control interference and reduce sensitivity to back-reflection.
  • Research and Development: Essential in laboratories for experiments requiring precise control of light paths, such as spectroscopy and photonics research.
  • Industrial Applications: Utilized in manufacturing processes involving laser cutting, welding, and material processing to enhance system performance and safety.
  • Military and Aerospace: Applied in defense and aerospace systems for secure and reliable optical communication and sensor systems.
  • Optical Instrumentation: Critical in the design of optical instruments like interferometers and spectrometers, where isolation of light paths is necessary.