Kuitukaapeli EFB Elektronik MTPF12LCOS2-10 10 m

The EFB Elektronik MTPF12LCOS2-10 is a 10 m OS2 single-mode fibre optic cable with an MTP connector on one end and 12x LC connectors on the other. Designed for high-density network environments, this fibre cable uses a 9 µm core to support long-distance, high-speed data transmission while maintaining signal integrity. The cable's configuration suits patching, trunking and interconnect tasks in data centres and telecommunication racks where space efficiency and reliable optical performance are required.

Advantages

This cable provides low insertion loss and consistent optical performance appropriate for single-mode OS2 systems. The MTP connector enables high-density multi-fibre connections while 12 LC connectors allow easy interface with standard patch panels and transceivers. At 10 metres length the cable balances reach and manageability, and the construction offers adequate flexibility for routing in racks and cable trays.

Key specifications

• Fibre type: single-mode OS2
• Core diameter: 9 µm
• Connector A: MTP (multi-fibre)
• Connector B: 12 × LC (duplex-style interfaces)
• Length: 10 m
• Typical use: high-density trunking and patching
• Cable flexibility: suitable for rack and tray routing

How to use

Install the MTP connector into the corresponding MTP adapter or cassette, ensuring correct polarity and alignment of the multi-fibre interface. Terminate each LC connector into the appropriate LC port on patch panels, transceivers or equipment, taking care to match transmit and receive channels. Avoid sharp bends and maintain minimum bend radius during installation to preserve optical performance. For best results, inspect connector endfaces for contamination and clean using appropriate fiber cleaning tools before mating.

Recommendations

Store and route the cable to prevent tight bends and mechanical stress. Use labelled cassettes or fibre management panels to keep the 12 LC connectors organised. Periodically inspect and clean connector endfaces to maintain low insertion loss and reliable connections in high-density deployments.