Módulo transceptor de fibra óptica BlueOptics UACC-OM-SFP28-SR-BO 100m

The BlueOptics UACC-OM-SFP28-SR-BO 100m is a fiber optic SFP28 transceiver module engineered for short-range 25G data transmission over multimode fiber. Housed in aluminium and weighing approximately 20 grams, this module provides a compact, MSA-compliant interface with LC duplex connectivity and is intended for use in network equipment that supports SFP28 25GBASE-SR optics. The transceiver operates with 850 nm transmit and receive wavelengths and supports link distances up to 100 meters on appropriate multimode cabling.

Advantages

The module offers compatibility with major network platforms that accept 25G SFP28 SR optics and is manufactured to MSA standards for plug-and-play interoperability. Its aluminium housing combines lightweight design with mechanical durability. Digital diagnostics (DDM/DOM) support enables real-time monitoring of vital parameters such as supply voltage, laser bias current, optical output and input power, and temperature when the host device exposes these functions. The transceiver is suitable for Ethernet and related high-speed applications up to 25 Gbit/s over multimode fiber.

Suitable for

Key specifications

How to use

Install the transceiver into a compatible SFP28 port following the host equipment manufacturer instructions, ensuring the module is fully inserted and latched. Connect LC duplex multimode fiber patch cords with matching polarity to the Tx and Rx ports. Verify link status in the host device and, if available, read digital diagnostic data to confirm operating parameters. For best performance, use certified multimode fiber and quality patch cords rated for 25G distances.

Recommendations

Confirm that the target hardware officially supports third-party SFP28 25GBASE-SR modules and that the firmware permits DDM/DOM access if diagnostics are required. Use OM3/OM4 multimode fiber for reliable operation at distances approaching 100 meters and avoid tight bends or excessive stress on fiber cables to maintain signal integrity.