Last Chance 1x2 Dwdm Channel 35, 200 G, 1549.32 Nm Set [ZbMGXNUS]

Last Chance 1x2 Dwdm Channel 35, 200 G, 1549.32 Nm Set [ZbMGXNUS]

The Last Chance 1x2 Dwdm Channel 35, 200 G, 1549.32 Nm Set [ZbMGXNUS] is a cutting-edge optical module designed for long-haul transmission systems. This module is engineered to provide exceptional performance and reliability, making it an ideal choice for high-speed data communication networks. With its advanced 200 GHz spacing DWDM filters, it offers system designers optimal configuration flexibility, ensuring seamless integration into various network infrastructures.

• Low Insertion Loss ensures minimal signal degradation, enhancing overall network performance.
• High Channel Isolation prevents cross-talk and interference, maintaining signal integrity.

Technical Specifications

This DWDM module boasts a 1.6 nm channel spacing, allowing for efficient use of the spectrum. Its wide pass band ensures optimal signal transmission, while its high stability and reliability make it suitable for challenging environments. The module features a low insertion loss, reducing power consumption and improving energy efficiency. Additionally, its excellent environmental stability ensures consistent performance over time.

• 1.6 nm Channel Spacing for efficient spectrum utilization.
• Wide Pass Band for optimal signal transmission.

Applications and Benefits

The Last Chance 1x2 Dwdm Channel 35, 200 G, 1549.32 Nm Set [ZbMGXNUS] is versatile and can be used in a variety of applications, including HFC fiberoptic systems, channel add/drop operations, wavelength routing, fiber optic amplifiers, and DWDM networks. Its robust design and advanced features make it an excellent choice for professionals seeking to enhance their network's performance and reliability.

• Use in HFC Fiberoptic System, Channel Add/Drop, Wavelength Routing, Fiber Optic Amplifier, and DWDM Network.

With its superior performance and reliability, this module is the perfect solution for demanding network environments, ensuring seamless data transmission and optimal network efficiency.