MULTIPLEXERS
Passive optical networking Maximize your dark fiber utilization with Vsunlight multiplexers and OADMs.
Powerful passive optical networking helps you get more out of your fiber networks.
Multiplexers and OADMs - Powerful passive optical networking
Vsunlight multiplexers and OADMs are designed for the best possible performance levels. That translates into low losses and even greater distances for transmission. All of our units can be housed in case hardened outdoor modules and can be used outdoors. Our range of passive CWDM/DWDM multiplexers and OADM modules allowup to 16 CWDM and 80 DWDM channels to be connected simultaneously over a dark fiber network. They are protocol transparent and suit applications including 400/100/10/G Ethernet, SDH/SONET, 32/16/8/4/2/hG Fibre Channel/FICON, FTTx and CATV. A hybrid C/DWDM system can be built by using CWDM channels 1530nm and 1550nm for 26 additional DWDM channels, keeping initial startup costs low and allowing a truly 'pay-as-you-grow' architecture.
CWDM-Mux/Demux
The CWDM-Series flexible, compact and cost-efficient.
The Vsunlight CWDM-Series is a high density, cost-efficient platform for passive optical layer nodes such as CWDM and DWDM multiplexers/demultiplexers and OADMs (Optical Add Drop Multiplexer). Using best of breed components, the CWDM-Series offers the latest generation of solutions for your passive optical networking needs. The H-Series is ideal when implementing fully passive optical layer solutions transparent to any data rate and service type.
DWDM-Mux/Demux
DWDM enables a large number of wavelength channels to be transmitted over a single fiber, resulting in a significant increase in the overall bandwidth of the network. This high - capacity transmission is essential for handling the ever - growing data traffic in today's digital world.
The Vsunlight DWDM system, such as the passive mux and demux filters, are generally reliable. The use of optical amplifiers also helps to maintain the quality of the signal over long distances, ensuring a more reliable data transmission.
O-Band DWDM Mux/DeMux
The wavelength range of O-Band is 1260-1360nm, with channel intervals of 200GHz (1.6nm) or 100GHz (0.8nm), and even possibly tighter intervals of 50GHz or 25GHz. This complements previous information about channel spacing, particularly the possibility of closer spacing.
O-Band DWDM Mux/DeMux covering sixteen O-Band DWDM channels ranging from 228.4-228.9THz.
OADM Mux/Demux
Optical Add-Drop Multiplexer (OADM) stands as a critical component for enabling flexible wavelength management in dense wavelength division multiplexing (DWDM) systems. By allowing the selective extraction ("drop") of specific wavelengths from a multi-wavelength optical signal and the insertion ("add") of new wavelengths into the same fiber, OADMs eliminate the need to terminate all signals at intermediate nodes, significantly enhancing network efficiency, scalability, and cost-effectiveness.
LANWDM-MUX
LAN WDM also known as LWDM, is a new form of wavelength division multiplexing (XWDM) that utilizes multiple wavelengths with a channel spacing of around 800 GHz (equivalent to a range of 4.26 nm to 4.62 nm). This channel spacing falls between Dense Wavelength Division Multiplexing (DWDM), which has channel spacings of 0.4 nm or 0.8 nm on the ITU fixed grid, and Coarse Wavelength Division Multiplexing (CWDM), which features a wider channel spacing of 20 nm. The IEEE has specified 12 LWDM channels, with wavelengths spanning from 1269.23 nm to 1318.35 nm..
Coexistence WDM
Passive Optical Network (PON) standards have been designed to enable two or more PON systems to co-exist over the same Optical
Distribution Network (ODN) thanks to the use of separate wavelengths for both upstream and downstream communications. That allows
increased data speed and the delivery of additional services without replacing any of the existing passive fiber network infrastructure, while
keeping previous services active.
Athermal AWG
With the deployment of 5G networks, AAWG play a vital role in 5G backbone networks by providing the high - capacity wavelength - division multiplexing capabilities required to handle this data traffic.AAWG can support a wide range of channel counts, such as 32, 40, 48, 64, 80, or 96 channels. The channel spacing can be 50 GHz, 75 GHz, or 100 GHz, depending on the specific product. For example, a 48 - channel AAWG with a 100 GHz channel spacing is a popular configuration for many DWDM applications.
CWDM-Mux/Demux
The CWDM-Series flexible,compact and cost-efficient.
The Vsunlight CWDM-Series is a high density, cost-efficient platform for passive optical layer nodes such as CWDM and DWDM
multiplexers/demultiplexers and OADMs (Optical)
O-Band DWDM Mux/DeMux
The wavelength range of 0-Band is 1260-1360nm, with channel intervals of 200GHz(1.6nm)or 100GHz(0.8nm), and even possibly tighter intervals of50GHz or 25GHz.This complements previous information about channel spacing, particularly the possibility of closer spacing.
OADM Mux/Demux
Optical Add-Drop Multiplexer (OADM)stands as a critical component for enabling flexible wavelength management in dense wavelength division multiplexing (DWDM)systems. By allowing the selective extraction ('drop') of specific wavelengths from a multi-wavelength optical signal and the
LANWDM-MUX
LAN WDM (Local Area Network Wavelength Division Multiplexing), also known as LWDM, is a new form of wavelength division multiplexing(xWDM) that utilizes multiple wavelengths with a channel spacing of around 800 GHz (equivalent to a range of 4.26 nm to 4.62 nm). This channel
Coexistence WDM
CEX WDM is an extension of the traditional Coarse Wavelength Division Multiplexing (cWDM) technology. CWDM typically uses a wavelength spacing of 20 nm across the 1270-1610 nm spectrum, allowing for the multiplexing of up to 18 channels. CEXWDM, on the other hand, further
Athermal AWG
With the deployment of 5G networks, AAWG play a vital role in 5G backbone networks by providing the high - capacity wavelength - division multiplexing capabilities required to handle this data traffic.They help in optimizing the use of fiber resources and ensuring seamless communication between different.