METZ CONNECT 24-Port SC-Duplex OS2 Singlemode Fiber Optic Splice Patch Panel, 1U 19 inch Rack Mount, Light Grey 150459E224-E

With an insertion loss under 0.2 dB per connector and return loss exceeding 55 dB, this 1U fiber optic splice patch panel delivers low-loss, high-performance connectivity for 24 SC-Duplex singlemode ports in a 19-inch rack.

Overview

The METZ CONNECT 150459E224-E is a fiber optic splice patch panel designed for direct splicing of OS2 singlemode fibers in structured cabling environments. It provides 24 SC-Duplex ports in a compact 1U form factor, making efficient use of rack space. The panel includes two splice cassettes, each accommodating up to 12 splices, and supports crimp or heat-shrink splice protectors. The housing is constructed from powder-coated steel sheet in light grey (RAL 7035), ensuring durability and a professional appearance.

What stands out

• 24 SC-Duplex ports for high-density fiber termination
• 1U 19-inch rack mount design saves valuable rack space
• Includes two splice cassettes for organized fiber management
• Supports OS2 singlemode fiber (ITU-T G.652.D / G.657.A1)
• Rear cable entry with four M20/M25 screw glands and strain relief
• Operating temperature range from -20 °C to +70 °C

Technical details

• Product type: Fiber optic splice patch panel
• Rack units: 1U
• Mounting standard: 19-inch rack mount
• Number of ports: 24
• Connector type: SC-Duplex
• Fiber type: Singlemode
• Fiber category: OS2
• Housing material: Steel sheet, powder-coated
• Housing colour: Light grey (RAL 7035)
• Splice cassettes included: 2 (each for 12 splices)
• Splice protector type: Crimp or heat shrink
• Cable entry: Rear, 4x M20/M25 screw glands
• Strain relief: Yes
• Protection class: IP20
• Operating temperature: -20 °C to +70 °C
• Insertion loss: < 0.2 dB per connector
• Return loss: > 55 dB

Our verdict

A reliable and efficient solution for terminating 24 singlemode fibers in a rack, with low insertion loss and robust construction. Ideal for data centers and enterprise networks requiring high-density fiber connectivity.