Módulo transceptor de red BlueOptics SFP-10G-SR-LU-BO 10000 Mbit/s SFP+ 850 nm

The BlueOptics SFP-10G-SR-LU-BO is a 10G SFP+ fiber optic transceiver module designed for short-range multi-mode links with a nominal wavelength of 850 nm. Constructed with a metal housing and weighing approximately 3 g, it offers a compact, industry-standard SFP+ interface for integration into switches, routers and storage systems that support 10GBASE-SR. The module supports data rates up to 10,000 Mbit/s and uses an LC duplex optical connector for simultaneous transmit and receive over separate fibres.

Advantages

The module follows MSA-compliant SFP+ mechanical and optical specifications and is compatible with equipment designed for 10GBASE-SR operation. Its metal housing improves mechanical durability and thermal performance while the lightweight design eases handling and installation. Digital Diagnostics Monitoring (DDM/DOM) support enables real-time access to operational parameters such as supply voltage, laser bias current, transmit power, receive power and temperature for easier troubleshooting and remote monitoring when the host supports this feature.

Suitable for

Key specifications

How to use

Insert the BlueOptics SFP-10G-SR-LU-BO into an available SFP+ port of a compatible network device while the device is powered according to the vendor guidelines. Connect an LC duplex multi-mode fibre patch cable matching the transceiver's transmit and receive ports. Verify link status on the host device and, if available, enable and read DDM/DOM registers for live diagnostics. Follow the host equipment documentation for any required firmware or configuration settings to ensure full compatibility.

Recommendations

Use OM3/OM4 multimode fibre for optimal reach and performance at 10G; avoid bending or stressing fibre cables near the connector. Confirm that the target switch or router supports SFP+ 10GBASE-SR modules and DDM/DOM if diagnostics are required. Store spare modules in anti-static packaging and handle by the housing to avoid contamination of the optical interface.