Panduit FWTYL7575LAM030 OM5 12F 30m Trunk Cable

Panduit FWTYL7575LAM030 OM5 12-Fiber Trunk Cable Assembly

The Panduit FWTYL7575LAM030 is a factory-terminated OM5 wideband multimode trunk cable engineered for high-density data center spine-leaf architectures and 40G/100G switch-to-switch interconnects. This 30-meter assembly features PanMPO female connectors on both ends, Method B polarity for straight-through array connections, and ultra-insertion-loss performance tested to exceed TIA-568-C.3 requirements. The HD Flex Transition cable construction uses 30 to 40 percent less pathway space than standard trunk assemblies while maintaining a tight bend radius for high-density cable management. LSZH jacketing meets international fire-safety requirements for enclosed data centers and plenum spaces where low-smoke, low-toxicity materials are mandated.

Key Features

• OM5 Wideband Multimode Fiber – 50 μm core supports shortwave wavelength-division multiplexing (SWDM) from 850 to 953 nm, enabling 100GBASE-SR4 links to 150 meters and future 200G/400G upgrades without re-cabling
• PanMPO Female-to-Female Connectors – 12-fiber array connectors on both ends provide plug-and-play connectivity to MTP/MPO infrastructure with Panduit's precision alignment for consistent sub-0.35 dB insertion loss per mated pair
• Method B Polarity – Straight-through pinout (fiber 1 to fiber 1, fiber 12 to fiber 12) simplifies direct trunk-to-trunk connections between enclosures or switches running parallel optics without crossover adapters or polarity-flip modules
• Ultra Insertion Loss Performance – Factory tested and certified for maximum 0.35 dB IL per connector interface, ensuring margin for multi-tier 40G/100G deployments and extended-reach OM5 applications
• HD Flex Transition Cable – Small-diameter trunk construction reduces cable-tray and pathway fill by 30 to 40 percent compared to standard 12-fiber assemblies, critical for maximizing rack-density in confined cable-management zones
• LSZH Jacket Material – Low-smoke zero-halogen outer jacket meets IEC 60332-1 and 60754 flammability and toxicity standards for enclosed equipment rooms, European data centers, and facilities where PVC off-gassing is prohibited
• Integrated Pulling Eye – Pre-installed eye on one connector end allows attachment of pull cord or fish tape for long cable-tray runs, preventing connector damage and fiber stress during installation
• Lime Color-Coding – High-visibility lime green jacket per TIA-598-D OM5 identification standard prevents cross-connection with OM3 (aqua) or OM4 (erika violet) infrastructure during moves, adds, and changes
• QuickNet Factory Termination – Every assembly is machine-polished, visually inspected, and insertion-loss tested in Panduit's ISO 9001 facilities, eliminating field-termination variability and reducing deployment time by up to 80 percent versus bulk cable

OM5 wideband multimode fiber extends the installed reach and bandwidth of traditional OM3 and OM4 infrastructures by supporting four-lane shortwave wavelength-division multiplexing across 850, 880, 910, and 953 nm channels. This SWDM capability allows a single 12-fiber trunk to carry four independent 25 Gbps lanes per fiber pair—delivering 100 Gbps aggregate bandwidth over distances up to 150 meters, a 50-meter improvement over OM4's 100GBASE-SR4 reach limit. For spine-leaf topologies where top-of-rack switches connect to aggregation switches one or two floors away, that additional 50 meters eliminates the need for costly OM4-to-singlemode media conversion or intermediate optical distribution frames. The 50 μm core diameter and optimized modal bandwidth (minimum 4700 MHz·km at 953 nm) also future-proof the link for 200GBASE-SR4 and 400GBASE-SR8 optics, which rely on the same SWDM wavelength plan to achieve 50- to 100-meter reach over OM5 fiber. Panduit's ultra-insertion-loss specification guarantees that each mated PanMPO connector pair contributes no more than 0.35 dB to the overall link budget—well below the IEEE 802.3ba allocation of 1.5 dB for two connectors and one trunk. This headroom accommodates additional patch panels, breakout modules, or cassette adapters in tiered architectures without exceeding the receiver sensitivity of -9.5 dBm typical for 100G SR4 optics. The FWTYL7575LAM030's Method B polarity keeps all twelve fiber positions in straight-through alignment (pin 1 to pin 1, pin 2 to pin 2, and so on), which matches the transmit/receive lane mapping of parallel-optics transceivers when both ends of the trunk connect to identical infrastructure—such as two MTP adapter panels both wired as Method B, or two switches both expecting key-up orientation on the same side. This configuration eliminates the need for Type B-to-A crossover adapters or polarity-reversing key-up/key-down dongles, reducing insertion points and potential failure modes in the optical path.

High-density switch fabrics and hyperconverged storage arrays generate extreme demand for clean cable routing within 42U racks and overhead cable trays. The FWTYL7575LAM030's HD Flex Transition construction uses a reduced-diameter round cable with individual 250 μm buffered fibers inside a single LSZH outer jacket, achieving an overall cable OD of approximately 6.6 mm versus 10 to 12 mm for traditional 12-fiber round assemblies. That 30 to 40 percent space savings translates directly into higher fill ratios for vertical cable managers, horizontal trays, and under-floor pathways—critical when a single leaf switch may require twenty or more trunk cables fanning out to top-of-rack units. The tight bend radius of HD Flex cable (10× cable diameter dynamic, 20× static) allows 90-degree turns inside shallow patch panels and along the side rails of open-frame racks without kinking or stressing the fiber, which would elevate insertion loss or trigger microbend attenuation. The integrated pulling eye on one connector end attaches to standard pull cords or fish tape for horizontal tray runs exceeding 30 meters, distributing tensile load across the cable strength member rather than the connector back-shell or individual fibers. Installers simply thread the pull cord through the eye, secure it with a bowline knot, and pull the assembly through the tray in one continuous motion—eliminating the need for mid-run splice points or hand-over-hand cable feeding that risks connector damage. The lime green LSZH jacket provides immediate visual differentiation from legacy OM3 (aqua) and OM4 (erika violet) cables during MAC operations, preventing accidental cross-patching of incompatible fiber grades that would limit link distance or trigger transceiver alarms. LSZH jacketing is mandatory in many European and Asian data centers under IEC 60332-1 flammability standards and IEC 60754 halogen-content limits, which cap hydrochloric acid emissions at 0.5 percent by weight during combustion. For facilities pursuing LEED certification, Tier III+ uptime ratings, or co-location in telecom carrier hotels, LSZH cable is often a baseline requirement rather than an optional upgrade—and retrofitting PVC trunk assemblies months after deployment incurs both material and labor costs that exceed the initial delta between jacket types.

Every FWTYL7575LAM030 trunk is factory-terminated under controlled cleanroom conditions using Panduit's automated polishing and inspection systems, then insertion-loss and return-loss tested across all twelve fiber positions to verify compliance with TIA-604-5 (FOCIS-5) endface geometry and TIA-568-C.3 optical performance. Test results are traceable to the assembly serial number and available on request for as-built documentation or BICSI RCDD audits. The assembly ships with protective dust caps on both connectors and includes a certificate of compliance confirming conformance to ISO/IEC 11801 Ed. 2.2, TIA-568-C.1, TIA-492-AAAD (OM5 fiber specification), IEC 60793-2-10 type A1a.3, and RoHS 3 (2015/863/EU) material restrictions. Panduit backs the FWTYL7575LAM030 with a comprehensive warranty covering materials, workmanship, and optical performance for the life of the installation when deployed per manufacturer guidelines—providing single-source accountability for fiber, connectors, and cable assembly rather than finger-pointing between component vendors during troubleshooting. This 30-meter length is optimal for inter-row spine-to-leaf connections in modular data halls, equipment-room patch-panel-to-switch links in telco central offices, and campus backbone runs between intermediate distribution frames where structured cabling standards dictate a maximum 90-meter horizontal and 10-meter total patch-cord allocation.