InfiniBand/fibre optic cable BlueOptics 040402G5120000015M 15 m 2x LC LC/APC

The BlueOptics 040402G5120000015M is a 15 m InfiniBand/fibre optic patch cable with 2x LC connectors and single-mode G.657.A1 fibre. Designed for full duplex communication, it uses a 9 µm core diameter single-mode fibre to support high-speed data transmission and reliable links in data centres and network infrastructure. The cable is sheathed in flame-retardant LSZH material and is intended for interconnecting patch panels, optical transceivers and active equipment where single-mode LC-to-LC connectivity is required.

Advantages

This BlueOptics LC–LC G.657.A1 patch cable provides low attenuation and high return loss, supporting interference-free optical transmission. It is manufactured with high-quality single-mode fibre and zirconia ceramic ferrules to ensure stable end-face geometry and a long mating life. The LSZH jacket reduces halogen release and smoke in case of fire, meeting common industrial safety expectations. Each cable is tested after production and supplied with measurement data for input loss and return loss.

Suitable for

Key specifications

How to use

Before installation, inspect connector end-faces and clean with approved fibre cleaning tools to avoid contamination. Route the cable following bend-radius recommendations for G.657.A1 fibre to preserve low attenuation; avoid sharp bends and excessive tensile load. Plug LC connectors into corresponding LC ports on patch panels or transceivers until the latch clicks. For duplex links ensure correct polarity and connector orientation. If necessary, verify link integrity and attenuation with an optical power meter or OTDR and compare with the supplied measurement protocol.

Recommendations

Store and handle the cable in a clean environment; use dust caps when connectors are not in use. Maintain a minimum bend radius consistent with G.657.A1 specifications, avoid repeated tight bends, and ensure rack routing prevents crushing or kinks. Consult equipment vendor guidance for connector mating cycles and transceiver compatibility when planning high-density or frequent reconnection scenarios.