New at OFC
40 Gb/s TODC
PLC chip solution for wide passpand and large dispersion tuning in 40 Gb/s systems. Compact package with superior specifications.
iVMUX Variable Multiplexer Module
The iVMUXTM provides a solid-state solution for multi-channel integrated VOA and wavelength multiplexer (VMUX). With this module automatic channel balancing can be done before wavelengths are multiplexed. This allows the multiplexing of optical signals at different power levels such as those from different transmitters, line rates and protocols. This product is bidirectional and can be used as either VMUX or VDEMUX.
Features:
- High Dynamic Range
- Low Insertion Loss and PDL
- Low Power Consumption
- Fast Actuation
- No Moving Parts
Options:
- Power Monitoring Option for Closed Loop Operation
- Scalable Channel Count (4-48)
- Normally Open or Normally Dark
- Guassian, Flat-Top, Semi-Flat Top Multiplexer
- Optional Integrated Tap and Switch
-
iMD-PD Integrated Mux/DeMux with Power Monitoring
iMD-PD Integrated Mux/DeMux with Power Monitoring
The iMDTM-PD products provide an integrated solution for up to 80 channel optical multiplexing and demultiplexing. Both Mux and DeMux AWGs are packaged inside a single module. Each channel is equipped with a tap photodiode for power monitoring.
-
iVMUX Variable Multiplexer Module
iVMUX Variable Multiplexer Module
The iVMUXTM provides a solid-state solution for multi-channel integrated VOA and wavelength multiplexer (VMUX). With this module automatic channel balancing can be done before wavelengths are multiplexed. This allows the multiplexing of optical signals at different power levels such as those from different transmitters, line rates and protocols. This product is bidirectional and can be used as either VMUX or VDEMUX.
-
VOA/MULTIPLEXER MODULE (APVMX)
VOA/MULTIPLEXER MODULE (APVMX)
Enablence offers PLC-based VOA/Multiplexer (VMUX) modules. High performance VOA arrays are integrated with high performance AWG chips to yield low loss VMUX devices with high attenuation accuracy and tuning range, and low polarization dependency.