CWDM device package
OE Photonics' CWDM uses dielectric thin-film filtering to increase capacity by transmitting multiple channels at distinct wavelengths over 1270nm-1610nm on one fiber. A receiver-side demultiplexer separates wavelengths for different equipment. The range meets ITU-I G.695. Applications include CATV, metro networks, and single-fiber bidirectional systems.
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| Wavelength | 1260~1620 nm |
| Channel Spacing | 20 nm |
| Channel bandwidth | λc±6.0~λc±7.5 |
| Insertion Loss [Transmission] | max:≤0.6 dB |
| Insertion Loss [Reflection] | max:≤0.4 dB |
| Adjacent-channel isolation | ≥30 dB |
| Non-adjacent-channel isolation | ≥40 dB |
| Polarization Dependent Loss | ≤0.1 dB |
| Return Loss | ≥45 dB |
| Transmission directivity | ≥48 dB |
| Reflection directivity | ≥55 dB |
| Operating Temperature | −10~70 ℃ |
| Storage Temperature | −40~85 ℃ |
| Relative Humidity | 5~95 % |
| Wavelength Thermal Stability | ≤0.003 nm/℃ |
| Maximum Optical Power | ≤500 mW |
| Dimensions | Φ3.6x26 or Φ4.0x26 or Φ5.5x34 |
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
1x3 Raman WDM Wavelength-Division Multiplexing (WDM) Oe-photonics
Wavelength Range: 1450/1550/1660 Insertion Loss: ≤1.4 dB Polarization Dependent Loss: ≤0.2 dB
OE Photonics' Raman WDM uses dielectric thin-film filtering to increase capacity by transmitting multiple channels at distinct wavelengths over 1260nm-1620nm on one fiber. A receiver-side demultiplexer separates wavelengths for different equipment. The range meets ITU-I G.695 and is widely used in fiber-sensing systems.
-
CWDM module package Wavelength-Division Multiplexing (WDM) Oe-photonics
Operating Wavelength: 1260~1650 nm Channel Spacing: 20 nm Channel bandwidth: λc±6.0~λc±7.5
OE Photonics' CWDM is a low-cost WDM technology for metro access networks. A transmitter-side optical multiplexer combines channels at distinct wavelengths over 1270nm-1610nm on one fiber to increase capacity. A receiver-side demultiplexer separates wavelengths for different equipment. Operating wavelengths meet ITU-T requirements, with good optical performance and reliability. Applications include CATV, metro networks, and single-fiber bidirectional systems.
-
DWDM device package Wavelength-Division Multiplexing (WDM) Oe-photonics
Operating Wavelength: 1527.21~1563.04 nm Channel Spacing [Original table left column]: 100 Ghz Channel Spacing [Original table right column]: 200 Ghz
OE Photonics' DWDM is a low-cost WDM technology for metro access networks. A transmitter-side optical multiplexer combines channels at distinct wavelengths over 1527.21nm~1563.04nm on one fiber to increase capacity. A receiver-side demultiplexer separates wavelengths for different equipment. Operating wavelengths meet ITU-T requirements, with good optical performance and reliability. Applications include CATV, metro networks, and single-fiber bidirectional systems.
-
DWDM module package Wavelength-Division Multiplexing (WDM) Oe-photonics
Operating Wavelength: 1527.21~1563.04 nm Channel Spacing [Original table λ-count 2/4/8 column]: 100 Ghz Channel Spacing [Original table λ-count 16/32 column]: 200 Ghz
OE Photonics' DWDM is a low-cost WDM technology for metro access networks. A transmitter-side optical multiplexer combines channels at distinct wavelengths over 1527.21nm~1563.04nm on one fiber to increase capacity. A receiver-side demultiplexer separates wavelengths for different equipment. Operating wavelengths meet ITU-T requirements, with good optical performance and reliability. Applications include CATV, metro networks, and single-fiber bidirectional systems.
Related Articles
Macro channel water-cooled stacked laser diodes integrate dozens of laser bars into one vertical stacked module with large-diameter macro flow cooling channels.
The CNGE 384 uncooled infrared core module is a high-performance core component for thermal imaging systems. Adopting mature uncooled infrared detection technology, it realizes all-weather thermal radiation perception and high-definition imaging without refrigeration equipment.
VCSEL, short for Vertical Cavity Surface Emitting Laser, is a widely used semiconductor laser component in modern optoelectronics. Unlike traditional edge-emitting lasers, VCSEL emits laser light vertically from its chip surface. Thanks to its low power consumption, stable beam quality, low cost, and easy integration, it has become the core light source for 3D sensing, wearable devices, and high-speed optical communication.
Founded in Beijing in 2011, Beijing FJR Opto-electronic Technology Co., Ltd. specializes in R&D, manufacturing and sales of infrared thermal imaging equipment and complete optoelectronic systems.
Loading...
Name
Phone
Organization
Use Case
Database Platform