Ricetrasmettitore in fibra ottica BlueOptics RDH901008/1-BO 10000 Mbit/s XFP 1310 nm

The BlueOptics RDH901008/1-BO fiber optic transceiver is a 10G XFP module engineered for high-speed single-mode links. It supports a maximum data rate of 10000 Mbit/s and operates at a wavelength of 1310 nm, using an XFP interface with LC duplex optical connectivity. The module is housed in a compact metal casing, requires a 3.3 V supply and weighs approximately 4 g, making it suitable for integration into switches, routers and other network platforms that accept XFP modules.

Advantages

This XFP transceiver provides 10GBASE-LR class transmission over single-mode fiber with simultaneous transmit and receive channels via an LC duplex connector. The metal housing offers mechanical robustness and thermal stability while the lightweight design simplifies handling and installation. The module supports digital diagnostics (DDM/DOM) for monitoring supply voltage, laser bias current, transmit power, receive power and temperature, enabling remote performance diagnostics and faster troubleshooting.

Suitable for

Key specifications

How to use

Install the transceiver into a compatible XFP slot on your network device following the device manufacturer’s insertion and removal procedure. Connect an LC duplex single-mode patch cable to the module, ensuring correct transmit/receive alignment. Verify that the host device recognizes the module and, if required, enable or check DDM/DOM reporting in the device management interface to monitor operational parameters. Observe standard electrostatic discharge (ESD) precautions when handling the module and avoid touching the optical connector endfaces.

Recommendations

For reliable long-distance links, use certified single-mode fiber and low-loss LC connectors. Confirm host compatibility with XFP 10GBASE-LR modules and enable DDM/DOM support in the network device to take advantage of real-time diagnostics. Clean optical connectors before mating and follow manufacturer guidelines for operating temperature and power supply limits to maximize service life.