QSFP Transceiver Module BlueOptics QSFP-40G-LR4-WDM1300-BO 40000 Mbit/s

The BlueOptics QSFP-40G-LR4-WDM1300-BO is a QSFP transceiver module designed for high-speed fiber optic links up to 40000 Mbit/s. Built for long-range communication, this grey module supports LC fiber connections and is intended for integration into 40 Gigabit Ethernet and similar networking equipment where reliable, single-lane aggregation and long-distance transmission are required. The form factor and interface follow QSFP standards to ensure compatibility with compatible switches, routers and media converters.

Advantages

This transceiver provides a high maximum data transfer rate of 40000 Mbit/s and supports long-range links up to 10000 m over singlemode fiber. The LC connector type enables reliable optical mating and wide industry support. The QSFP form factor allows compact multi-channel deployment and straightforward installation into QSFP ports. The neutral grey color gives a professional appearance suitable for rack-mounted and data-center environments.

Suitable for

Key specifications

How to use

Insert the QSFP-40G-LR4-WDM1300-BO module into a compatible QSFP port on your switch, router or media converter while the device is powered down or following the host manufacturer's hot-plug guidance. Connect LC-terminated singlemode fiber cables to the module's LC ports, ensuring correct polarity and secure connections. After physical installation, verify link status through the host device management interface and confirm proper negotiated speed and signal quality. Monitor temperature and optical parameters as supported by the host system.

Recommendations

Use singlemode fiber with appropriate WDM-compatible cabling and adhere to the specified maximum distance of 10000 m. Verify transceiver compatibility with your network equipment vendor's supported transceiver list where possible, and follow proper ESD precautions when handling the module. For reliable long-range performance, ensure clean LC connectors and proper fiber routing to avoid excessive attenuation.