Panduit FS2EPKDLDNDM001 Opti-Core OM4+ 2-Fiber D-Code/Non-Coded Duplex LC Patch Cord

The Panduit FS2EPKDLDNDM001 is a 1-meter OM4+ Signature Core duplex fiber patch cord engineered for high-bandwidth datacenter and enterprise backbone installations requiring physical-layer security. This 2-fiber jumper features D-coded duplex LC on one end and non-coded duplex LC on the other, enabling secure zone transitions in color-coded infrastructure where only matching keyed connectors mate. Plenum-rated (OFNP) with ultra-low insertion loss, it supports 40/100G Ethernet over multimode fiber in camera backhaul networks, NVR uplinks, and fiber distribution frames.

Key Features

• OM4+ Signature Core fiber delivers 40/100GBASE-SR4 performance with margin for future 400G migrations
• D-code/non-coded hybrid design bridges secure zones to standard infrastructure without adapter loss
• Ultra-low insertion loss specification ensures link budget headroom on long campus runs
• Plenum-rated OFNP jacket qualifies for overhead installation in return-air spaces without conduit
• 1.6mm zipcord format balances flexibility and crush resistance in high-density patch panels
• Yellow jacket matches TIA-598 OM4 color convention for instant fiber-type identification

Panduit's Opti-Core OM4+ fiber exceeds TIA-492AAAE-A specifications for 50/125μm laser-optimized multimode fiber, supporting 10GBASE-SR to 400m and 40GBASE-SR4 to 150m — critical for IP camera networks spanning multiple buildings or floors. The Signature Core manufacturing process delivers tighter modal bandwidth control than commodity OM4, reducing chromatic dispersion on parallel optics links. In surveillance deployments, this translates to reliable 10G uplinks from edge switches aggregating 50+ cameras, or 40G trunk connections between NVR clusters and SAN storage. Integrators building 25G/100G camera backbones for 4K+ resolution arrays gain future-proof headroom; the OM4+ designation confirms compatibility with emerging 200G/400G BiDi transceivers that will drive next-decade storage fabrics.

The hybrid D-code/non-coded connector pairing addresses a specific datacenter security problem: preventing accidental cross-connects between production camera networks and guest/IoT VLANs that share the same fiber plant. D-coded LC connectors physically block insertion into non-D ports via an asymmetric key molded into the ferrule housing — a technician cannot defeat it without tools. Deploy D-coded patch cords on the secure-zone side of your fiber distribution panel (connecting to access switches serving PTZ domes, LPR cameras, or building-management sensors), then use this hybrid jumper to bridge into the non-coded backbone trunk leading to the core. The one-meter length is optimized for rack-to-rack connections within the same row or panel-to-switch jumpers in 42U cabinets; yellow zipcord jacket provides the bend radius needed for dense cable management arms without kinking. Plenum rating (OFNP per NEC Article 770) eliminates the need for conduit or J-hooks rated for non-plenum cable, simplifying overhead pathways in drop-ceiling spaces common to commercial installs.

Panduit's sub-0.15dB typical insertion loss (well below the 0.5dB TIA-568 limit) preserves link budget on multi-span campus links — essential when daisy-chaining six fiber panels between a remote gate camera and the headend 800 meters away. Every 0.1dB you save per connector pair buys another 20 meters of reach or tolerates an additional splice. The duplex LC form factor is the de facto standard for 10G+ SFP+ and QSFP28 optics in enterprise switches; ruggedized push-pull tab design survives 500+ mating cycles without ferrule wear. RoHS compliance and TAA-grade country-of-origin documentation meet federal and state procurement rules for government surveillance projects. For integrators wiring secure facilities — courthouses, detention centers, critical infrastructure — where physical-layer access control is part of the security architecture, this hybrid D-code cord is the missing link between locked-down zones and the open backbone.