SFP+-transceivermodule BlueOptics SFPP-10GE-ER-XT-BO 10000 Mbit/s 1550 nm

The BlueOptics SFPP-10GE-ER-XT-BO is an SFP+ fiber-optic transceiver module designed for 10 Gbit/s high-speed single-mode links. It operates at a 1550 nm wavelength, supports LC duplex connections and comes in a compact, metal housing with a 3.3 V supply requirement and a very low weight. The module implements 10GBASE-ER optical signaling suitable for extended-reach links and is built to meet MSA form-factor and electrical specifications for broad interoperability with compatible networking equipment.

Advantages

This transceiver delivers 10 Gbit/s throughput over single-mode fiber at 1550 nm while maintaining a compact SFP+ form factor and a lightweight metal enclosure. It is manufactured to MSA-compatible standards to maximize compatibility with a wide range of switches, routers and storage interfaces. The module supports digital diagnostics (DDM/DOM) for real-time monitoring of supply voltage, laser bias current, optical output/input power and temperature, enabling remote fault detection and simplified maintenance.

Suitable for

Key specifications

How to use

Install the module into an SFP+ port on compatible network equipment following the vendor’s hot-swap and insertion guidelines. Connect LC duplex single-mode patch cords to the module and the corresponding remote transceiver, ensuring proper transmit/receive orientation. Verify that the host device supports 10GBASE-ER optics and that DDM/DOM is enabled if you intend to monitor link parameters. After insertion, confirm link status and traffic using the switch or router management interface.

Recommendations

For optimal performance, use high-quality single-mode fiber and LC duplex patch cords, keep optical connectors clean, and verify compatibility with the target hardware platform. If using DDM/DOM, confirm the host device supports the feature to obtain real-time diagnostic data. Follow standard ESD precautions when handling the transceiver and avoid bending fiber beyond recommended radii to maintain expected reach and signal integrity.