SFP transceiver module BlueOptics SFP-10G-LR-MA-BO 10000 Mbit/s

The BlueOptics SFP-10G-LR-MA-BO is a fiber optic SFP transceiver module designed for 10 Gbit/s class networks. With an SFP+ interface and a maximum data transfer rate of 10000 Mbit/s, this compact module supports high-speed optical links while occupying a small footprint. Weighing approximately 20 g, it is suitable for integration into switches, routers and optical line cards where reliable, long-reach connectivity is required.

Advantages

This SFP transceiver offers a standardized SFP+ form factor for broad compatibility with equipment that supports 10 Gigabit Ethernet. Its optical design enables efficient high-throughput data transmission while keeping power consumption and physical size low. The module's consistent performance characteristics simplify deployment and maintenance in data center, telecom and enterprise network environments.

Suitable for

• 10 Gigabit Ethernet uplinks and backbone connections
• Data center server and switch interconnects
• Enterprise and campus network aggregation
• Optical links requiring a compact SFP+ transceiver

Key specifications

• Interface type: SFP+
• Maximum data transfer rate: 10000 Mbit/s (10 Gbit/s)
• Form factor: SFP/SFP+ optical transceiver
• Weight: 0.02 kg

How to use

Install the module into an available SFP+ port on a compatible switch, router or network device while the host port is powered down or following the manufacturer's hot-plug guidelines. Insert the appropriate LC optical connector into the module's receptacle and ensure fiber polarity and link partner settings match. After physical installation, verify link status and configure the host device's interface parameters as required for the network (speed, duplex, VLANs, or optical diagnostics if supported).

Recommendations

Use quality single-mode fiber and compatible LC connectors for long-reach links, and confirm transceiver compatibility with the network equipment vendor's supported optics list. Observe ESD precautions during handling and avoid bending fibers beyond recommended radii to maintain signal integrity.