| Brand Name: | Gracyfiber |
The 100 GHz AWG Module is a passive wavelength-division multiplexing component designed for dense multi-channel optical transmission systems. Based on Arrayed Waveguide Grating (AWG) technology, it provides wavelength multiplexing and demultiplexing with a defined 100 GHz channel spacing.
In a MUX configuration, the module combines multiple wavelength channels onto a common optical fiber. In a DEMUX configuration, it separates a multiplexed optical signal into individual wavelength channels. This allows multiple optical channels to share the same fiber infrastructure and supports efficient wavelength utilization in DWDM transmission systems.
The 100 GHz AWG Module can be configured with different channel counts, wavelength plans, spectral profiles, fiber interfaces, and package formats for integration into telecom transport equipment, data center interconnect systems, optical monitoring platforms, and customized WDM assemblies.
100 GHz channel spacing
Arrayed Waveguide Grating technology
Multi-channel wavelength multiplexing
Multi-channel wavelength demultiplexing
Passive optical operation
No external power supply required
Low insertion loss design
High channel isolation design
Good channel-to-channel uniformity
Compact multi-channel architecture
Multiple channel counts available
Multiple wavelength plans available
Flat-top or Gaussian options available
Customizable fiber interfaces
Customizable package configurations
DWDM transmission systems
Metro optical networks
Long-haul optical transport
Data center interconnect
Optical Mux/Demux systems
Wavelength routing systems
Optical network monitoring
Telecom transport equipment
Multi-wavelength fiber transmission
Optical test and measurement systems
Photonic subsystem integration
Customized WDM assemblies
100 GHz refers to the frequency spacing between adjacent wavelength channels. It defines the AWG channel grid and should not be interpreted as the data transmission rate of the module.
Yes. A 100 GHz AWG can be configured with different channel counts, wavelength plans, spectral profiles such as Gaussian or flat-top, fiber interfaces, and package formats. Final insertion loss, isolation, ripple, passband, and other optical parameters should be confirmed according to the specific design.