SFP+-lähetin-vastaanotinmoduuli BlueOptics SFP+-10GBIDI-1270-1330-BO 10 000 Mbit/s

The BlueOptics SFP+-10GBIDI-1270-1330-BO is an SFP+ fiber optic transceiver module designed for 10 Gbit/s links. It supports bidirectional 10GBASE-BX-U transmission over a single optical fiber using LC Simplex connectors, operating with a transmit wavelength of 1270 nm and a receive wavelength of 1330 nm. The module follows MSA-compliant SFP+ form factor and provides a compact, lightweight silver housing with a documented mean time between failures (MTBF) of around 3,000,000 hours for long-term deployment.

Advantages

The module provides 10 Gbit/s line-rate performance in a compact SFP+ form factor and supports bidirectional operation over a single fiber, reducing cabling needs. It includes Digital Diagnostics Monitoring (DDM/DOM) support for real-time monitoring of supply voltage, laser currents, transmit/receive power and temperature when used in compatible equipment. Components are selected to meet MSA guidelines and are sourced from established optical and IC suppliers to ensure interoperability and extended operational lifetime.

Suitable for

Key specifications

How to use

Insert the BlueOptics SFP+-10GBIDI-1270-1330-BO into a compatible SFP+ slot on your switch, router or host interface until it latches securely. Connect an appropriate LC Simplex patch cable to the transceiver and route it to the remote transceiver or patch panel. Ensure that the remote port uses the complementary wavelength orientation (1270 nm transmit / 1330 nm receive swapped at the far end) for bidirectional single-fiber operation. Verify link status via the host device LEDs or management interface and enable DDM/DOM monitoring in the host system if available.

Recommendations

Use single-mode LC simplex patch cables rated for the required distance and ensure fiber connectors are clean before mating. Confirm compatibility with the host device firmware and that DDM/DOM is enabled on both ends if remote diagnostics are required. For permanent installations, secure fiber routing to avoid microbends and maintain recommended bend radii to preserve optical performance.