Ascentta Faraday Rotator Mirror (1310nm, 1480nm, 1550nm)

Specifications

Operating Bandwidth: 60 nm
Insertion Loss (max): 0.6 dB
Faraday Rotation Angle (single Pass): 45 deg deg
Wavelength: 1310±30, or 1480±30, or 1550±30 nm
Faraday Rotation Angle (Single Pass): 45 Degree
Rotation Angle Tolerance Over Wavelength And Temperature: ±5 Degree
Insertion Loss Typ.: 0.4 dB
Insertion Loss Max: 0.6 dB
PDL Max: 0.05 dB
PMD Max: 0.1 ps
Optical Power Handling Max: 300 mW
Package Dimension: Φ4.5 x L22 mm
Operating Temperature: -5 to +70 ℃
Storage Temperature: -40 to +85 ℃
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Features


  • Excellent performance with low insertion loss

  • Enables efficient protection of optical signals in free-space applications

  • Polarization-dependent and polarization-independent configurations available

  • Faraday mirror variant for specific wavelength applications

  • Fiber length and connector to specification

  • Available with loose tube or bare fiber

Applications


  • Telecommunications: The Faraday Mirror is used in fiber optic communication systems to improve signal quality by reducing polarization mode dispersion and polarization dependent loss.

  • Fiber Optic Sensing: It is used in fiber optic sensors for various applications, including temperature, pressure, and strain sensing, by enhancing the signal integrity.

  • Optical Coherence Tomography (OCT): The device is utilized in OCT systems to improve image quality by minimizing polarization-related signal degradation.

  • Laser Systems: The Faraday Mirror is used in laser systems to control and manage the polarization state of laser beams, ensuring consistent performance.

  • Research and Development: It is employed in R&D settings for experiments requiring precise control of light polarization and phase.

  • Medical Imaging: The Faraday Mirror is used in medical imaging technologies to enhance image clarity and accuracy by controlling polarization effects.

  • Metrology: It is used in precision measurement systems to ensure accurate readings by minimizing polarization errors.