SFP-transceiver PLANET MTB-SR2 glasvezel 10000 Mbit/s 1310 nm

The PLANET MTB-SR2 is a fiber optic SFP transceiver module designed for 10 Gigabit Ethernet links. With a maximum data rate of 10000 Mbit/s and a metallic housing for durability and heat dissipation, this module supports reliable connectivity for enterprise, telecom and data center applications. It operates at a 1310 nm wavelength and supports multimode deployment distances suitable for short- to medium-range links, simplifying integration with existing PLANET 10G SFP+ equipment.

Advantages

The MTB-SR2 provides high-performance 10G connectivity in a compact SFP form factor and is compatible with PLANET devices featuring 10G SFP+ ports. Its metallic case improves mechanical robustness and thermal performance. The product supports distances up to the specified maximum transfer range and is suitable for use in networks that require standard LC fiber connections. Backward compatibility with legacy Ethernet equipment is supported where auto-negotiation and media conversion are available.

Suitable for

• Enterprise 10G uplinks and aggregation
• ISP and telecom fiber links
• Data center short- to medium-reach connections

Key specifications

• Maximum data transfer rate: 10000 Mbit/s
• Wavelength: 1310 nm
• Maximum transfer distance: 2000 m
• Ethernet interface type: 10 Gigabit Ethernet (SFP form factor)
• Product colour: Metallic
• Manufacturer part number (MPN): MTB-SR2
• EAN: 4711605284554

How to use

Insert the MTB-SR2 SFP transceiver into a compatible 10G SFP+ slot on a switch, router or media converter. Connect LC fiber cables appropriate for the supported distance and multimode/single-mode type. Power on the host device and verify link status through the device management interface. Ensure proper handling of fiber connectors to avoid contamination and signal loss.

Recommendations

Use certified LC fiber patch cords and maintain clean connectors. Match the transceiver to the correct fiber type and verify compatibility with the host device firmware. For links near the maximum distance, verify signal quality with link diagnostics and consider using appropriate fiber grades and splicing practices.