Eaton Tripp Lite Series 40/100Gb Fiber Breakout Patch Panel — 1U, 15 MTP QSFP to 60 LC Duplex OM4 Ports

The Eaton Tripp Lite Series 40/100Gb Fiber Breakout Patch Panel is a state‑of‑the‑art connectivity solution engineered for modern data centers and enterprise networks that demand scalable, high‑performance fiber interconnects. Built to support ultra‑high speeds while maintaining dense, clean cabling, this 1U patch panel delivers seamless 40Gb and 100Gb breakout capabilities with OM4 multimode fiber. It is designed to simplify complex multi‑rate deployments, enabling rapid upgrades and flexible topology changes without replacing your existing infrastructure. Whether you are consolidating campus links, expanding a spine‑leaf fabric, or building a high‑density edge, this patch panel provides a future‑ready framework that grows with your networking goals.

• Multi‑rate breakout support: Converts 40Gb to 4×10Gb and 100Gb to 4×25Gb through robust QSFP/QSFP28 breakout configurations, enabling flexible uplinks and downlinks across mixed speed fabrics without new hardware purchases.
• High‑density fiber connectivity: Features 15 MTP QSFP interfaces and 60 LC duplex ports for OM4 multimode fiber, delivering compact cabling with clear port mapping and streamlined management in dense data centers.
• OM4 50/125 multimode compatibility: Optimized for long‑reach, high‑bandwidth transmissions, enabling efficient multi‑gigabit aggregation and backbone connections with low loss and strong signal integrity.
• 1U rack‑mount design: A durable, space‑savvy enclosure that fits standard 19" racks, simplifying installation, cooling, and cable routing while maintaining accessibility for maintenance and upgrades.
• Future‑ready and scalable: Designed to accommodate evolving speeds and port counts, reducing the need for wholesale redeployment as your data center transitions to faster interconnects and more demanding workloads.

Technical Details of Eaton Tripp Lite Series 40/100Gb Fiber Breakout Patch Panel

• Form factor: 1U rack‑mount patch panel optimized for high‑density data center deployments.
• Breakout capability: 40Gb breakout to 4×10Gb and 100Gb breakout to 4×25Gb, enabling flexible uplink/downlink configurations with appropriate transceivers and breakout cables.
• Fiber type and connectors: OM4 50/125µm multimode fiber with MTP/MPO to LC duplex breakout ports, supporting large port counts in a compact footprint.
• Port architecture: 60 LC duplex ports (for breakout terminations) supported by 15 MTP QSFP interfaces, enabling dense connectivity in a 1U form factor.
• Transceiver compatibility: Compatible with QSFP+ (40G) and QSFP28 (100G) transceivers when paired with appropriate breakout cables or modules to achieve the desired 4×10G or 4×25G configurations.
• Rack and cable management: Engineered for clean cabling with organized routing, labeled ports, and secure termination to minimize crosstalk and maximize airflow in the rack enclosure.

How to install Eaton Tripp Lite Series 40/100Gb Fiber Breakout Patch Panel

Follow these steps to install and deploy the patch panel in a typical data center rack environment. This guide emphasizes best practices for performance, reliability, and ease of maintenance.

• Plan the topology: Assess your current and future network topology. Decide which links will use 40Gb to 4×10Gb breakouts and which will use 100Gb to 4×25Gb breakouts. Map each MTP QSFP interface to its corresponding LC duplex endpoints to avoid crossover and port misassignment.
• Prepare the rack space: Install the patch panel in a standard 19" rack or cabinet, ensuring adequate clearance for cable management, airflow, and future expansion. Confirm a stable power supply and grounded environment to protect high‑density connectors.
• Mount and align: Securely mount the 1U panel, verifying that the chassis rails are aligned to prevent strain on fiber cables. Leave enough slack for breakout cables to prevent bending and to allow serviceability.
• Terminate the cable harnesses: Attach MTP QSFP breakout harnesses to the 15 QSFP ports. Route each breakout to the corresponding LC duplex endpoints, employing proper bend radii and label all pairs for easy identification during maintenance or troubleshooting.
• Labeling and documentation: Clearly label each 60 LC duplex port set and QSFP ingress/egress path. Maintain an up‑to‑date inventory of transceivers, breakout cables, and fiber routes to support change management and audits.
• Test and validate: After physical installation, perform optical loss tests using a power meter and light source or OTDR where available. Validate that the 40G and 100G breakout paths meet your performance targets, and verify that all links are properly discovered by the network gear you connect to.
• Route airflow and management: Use cable ties or Velcro straps to secure bundles away from hot components. Keep fiber paths neat and away from active heat sources to preserve signal integrity and maintain steady temperatures within the enclosure.
• Future upgrade readiness: Record your current configurations and keep spare QSFP/QSFP28 transceivers and breakout kits on hand to simplify future expansions without downtime.

Frequently asked questions

• What speeds does this patch panel support? It supports 40Gb to 4×10Gb and 100Gb to 4×25Gb breakout configurations, enabling flexible, high‑density interconnects for modern data centers.
• What type of fiber does it use? The panel uses OM4 50/125µm multimode fiber with MTP/QSFP breakout to LC duplex ports, optimized for high‑bandwidth transmission and longer reach compared to older multimode grades.
• How many ports are available? The panel provides 60 LC duplex breakout ports across the 15 MTP QSFP interfaces, arranged for dense, scalable deployments in a 1U form factor.
• Is it compatible with QSFP+ and QSFP28 transceivers? Yes. With appropriate breakout cables and proper transceivers, you can use 40G QSFP+ and 100G QSFP28 paths to achieve the required breakout configurations.
• What are the benefits of using this breakout patch panel? Benefits include high density, flexible multi‑rate interconnects, simplified cable management, easier upgrades to higher speeds, and better overall utilization of OM4 fiber in modern data center architectures.