1064nm Polarization Maintaining Single Fiber Collimator

            The 1064 nm PM Fiber Collimator is the basic element for in-line PM fiber optics components, such as PM isolator and PM FWDM. It has high extinction ratio, low insertion and high return loss. The unique processing and high quality FT coating also enable this collimator to handle high power.

500mW 850nm Polarization Maintaing Fiber Isolator

           The High Power Polarization Maintaining Isolator is characterized with low insertion loss, high isolation, high power handling, high return loss, excellent environmental stability and reliability. It is ideal for fiber laser and instrumentation applications.

1064nm Faraday Mirror

     The 1064nm Faraday Mirror is a passive device that provides 90 degree rotation regarding to the polarization state of the input light. The FM offers excellent performance including the lowest possible insertion loss and enviromental stability. It is used in EDFAs, fiber lasers and fiber instruments to mininize the polarization effect.

1064nm Polarization Insensitive Optical Circulator

        The Optical Circulator is a compact, high performance lightwave component that routes incoming signals from Port 1 to Port 2, and incoming Port 2 signals to Port 3. The component provides high isolation, low insertion loss, low PDL, low PMD and excellent environmental stability.

1064 nm Single Fiber Collimator

         The 1064nm Fiber Collimator is the basic element for in-line fiber optics components, such as isolator and WDM. It has low insertion and high return loss. The unique processing and high quality FT  coating also enable this collimator to handle high power.

1064nm Polarization Maintaining Single Fiber Collimator

              The 1064 nm PM Fiber Collimator is the basic element for in-line PM fiber optics components, such as PM isolator and PM FWDM. It has high extinction ratio, low insertion and high return loss. The unique processing and high quality FT coating also enable this collimator to handle high power.