TLC 6 Fiber Singlemode Tight Buffer Indoor/Outdoor OFNR (Riser) | 1000ft

TLC 6 Fiber Singlemode Tight Buffer Indoor/Outdoor OFNR (Riser) | 1000ft

The TLC 6 Fiber Singlemode Tight Buffer Indoor/Outdoor OFNR (Riser) Fiber Cable – 1000ft is a durable and reliable fiber optic cable designed for enterprise networks, telecommunications infrastructure, and building backbone installations that require riser-rated safety and indoor/outdoor installation flexibility. Featuring 6 strands of singlemode fiber, this cable supports long-distance, high-bandwidth data transmission with minimal signal loss, making it ideal for modern high-speed network environments.

Built with tight-buffered fiber construction, this cable provides enhanced durability and simplified termination, allowing installers to efficiently deploy fiber connections in structured cabling systems. The indoor/outdoor-rated jacket enables seamless transitions between exterior pathways and interior building runs, while the OFNR (riser) rating ensures compliance for vertical installations between floors in commercial and institutional buildings.

The 6-fiber configuration is ideal for telecommunications rooms, backbone links, and network expansion projects where dependable fiber connectivity is required. Supplied on a 1000-foot reel, this cable is well suited for contractors and network professionals installing reliable fiber optic infrastructure.

Key Features:

• 6-strand singlemode fiber for long-distance, high-bandwidth connectivity
• Tight-buffered construction for easier termination and improved durability
• Indoor/Outdoor rated jacket for flexible installation environments
• OFNR (riser) rated for vertical building runs between floors
• Ideal for enterprise networks, telecom infrastructure, and structured cabling systems
• Designed for high-speed fiber network deployments
• 1000ft reel for professional fiber optic installations

The TLC 6 Fiber Singlemode Tight Buffer OFNR Indoor/Outdoor Fiber Cable provides dependable long-distance performance and installation flexibility for modern fiber optic network infrastructure.