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635/1064 nm Wavelength Division Multiplexers (GK-WDM Series)
WDM-filter

635/1064 nm Wavelength Division Multiplexers (GK-WDM Series)

The Singlemode Wavelength Division Multiplexers combine or separate light at different wavelengths. They offer very low insertion loss, low polarization dependence, high isolation, and excellent enviromental stability. These components have been extensively used in EDFA, CATV, WDM networks and fiber optics instrumentation.

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    Specifications

    Parameter

    Unit

    Value

    Longer Operating Wavelength

    nm

    1064 ± 5

    Max. Insertion Loss

    dB

    0.2

    Max. Polarization Dependent Loss

    dB

    0.1

    Min. Isolation

    dB

    20

    Shorter Operating Wavelength

    nm

    635 ± 5

    Max. Insertion Loss

    dB

    1.0

    Min. Isolation

    dB

    10

    Thermal Stability

    dB/℃

    ≤ 0.002

    Min. Return Loss

    dB

    55

    Min. Directivity

    dB

    55

    Max. Optical Power (Continuous Wave)

    W

    5

    Operating Temperature

    -40 to +75

    Storage Temperature

    -40 to +85

    Test at central wavelength only.

    Package Dimensions

    635/1064 nm Wavelength Division Multiplexers (GK-WDM Series)

    product description

    Wavelength Division Multiplexers (WDMs) are critical components in optical communication and sensing systems, allowing multiple signals at different wavelengths to be combined or separated on a single optical fiber. Here's a recap of their key features and their significance:

    Combination and Separation of Wavelengths: WDMs enable the multiplexing of multiple wavelength signals onto a single fiber for transmission and the demultiplexing of these signals at the receiver end. This feature is essential for increasing the bandwidth and capacity of optical communication networks.

    Very Low Insertion Loss: WDMs are designed to minimize the loss of signal power as the light passes through the device. Low insertion loss is vital for maintaining signal strength, especially in long-distance fiber optic communication systems or when multiple WDMs are used in series.

    Low Polarization Dependence: The performance of the WDM is not significantly affected by the polarization state of the input light. This characteristic ensures consistent performance across different types of optical signals and for maintaining signal integrity.

    High Isolation: WDMs provide high isolation between different wavelength channels, which means that signals in one channel do not interfere with those in another channel. This reduces crosstalk and ensures that each signal remains distinct and clear.

    Excellent Environmental Stability: These devices are built to maintain their performance under varying environmental conditions, such as temperature fluctuations. This stability is crucial for reliable operation in diverse settings, including outdoor or uncontrolled environments.