QSFP Transceiver Module BlueOptics QSFP-100G-CLR4-HU-BO 100 Mbit/s

The BlueOptics QSFP-100G-CLR4-HU-BO is a QSFP28 fiber optic transceiver module designed for high-speed single-mode optical links. Constructed with an aluminium housing and weighing approximately 40 g, the module supports a maximum data transfer rate of 100 Mbit/s and a maximum optical reach of up to 10,000 m. It uses LC Duplex connections and adheres to MSA form-factor standards, providing a compact, hot-pluggable interface for network devices that accept QSFP28 modules.

Advantages

This transceiver offers standardized QSFP28 compatibility in an aluminium enclosure that supports long-distance single-mode transmission. The module includes transmitter and receiver stages with CWDM functionality for wavelength multiplexing on single-mode fiber and provides digital diagnostics for monitoring operating parameters. It is designed and tested for interoperability with major hardware platforms that support the corresponding QSFP28 transceiver form factor, offering a durable option with a small physical footprint.

Suitable for

Key specifications

How to use

Install the BlueOptics QSFP-100G-CLR4-HU-BO by inserting it into a compatible QSFP28 port on the network device while the device is powered per the vendor's hot-plug guidelines. Connect LC Duplex single-mode patch cords to the module's LC ports, making sure transmit and receive fibers are correctly oriented. Verify link status in the host device and use the digital diagnostic monitoring interface where supported to check real-time operating parameters. Follow your hardware vendor's instructions for enabling and configuring the port and related protocols (Ethernet, Fibre Channel, or other supported standards).

Recommendations

For reliable long-reach performance, use single-mode LC Duplex patch cords and keep connectors clean and dust-free. Confirm that the target hardware supports QSFP28 modules and the DDM/DOM functions to enable monitoring. When deploying across distances approaching the maximum range, validate power budgets and fiber attenuation to ensure sufficient optical margin.