Factory Sale SC ODF Fiber Optic Cabinets 384 Core Fiber Optic Optical Distribution Frame
Description:
With the global gigabit broadband popularization and 5G-Advanced commercialization, FTTH (Fiber to the Home) access networks are facing higher requirements for density, durability, and stability. As a core node in ODN (Optical Distribution Network), fiber optic cross connect cabinets are often deployed in outdoor harsh environments—exposed to rain, dust, extreme temperatures, and even vandalism.
Many telecom operators and engineering contractors encounter headaches:
Traditional steel cabinets rust after 2-3 years, leading to equipment failure and high maintenance costs;
Low-capacity cabinets (≤144 cores) cannot meet medium-to-large community access needs, requiring frequent upgrades;
Poor waterproof performance causes fiber attenuation, affecting broadband speed and user experience.
To address these pain points, Chengdu Focus Infra Materials (CFIM)—a 15+ year fiber optic accessory expert—launches the FTTH 288 Core SMC Outdoor Waterproof IP55 Fiber Optic Cross Connect Cabinet. This telecom-grade ODF (Optical Distribution Frame) integrates SMC composite material’s weather resistance, IP55’s reliable protection, and 288-core high-density design, becoming the preferred choice for FTTH network construction, old community upgrades, and 5G base station backhaul infrastructure.
CFIM optimizes the cabinet design based on 1000+ FTTH project feedback, focusing on construction efficiency:
Dual Installation Modes:
Floor-standing: Adjustable feet (height range 50-100mm) for uneven ground;
Wall-mounted: Reserved mounting holes, suitable for narrow spaces (e.g., weak current wells, roof corners);
Convenient Operation:
Tempered glass front door (impact-resistant) with anti-theft lock—visual inspection of internal connections without opening;
Removable side panels and pull-out splice trays, reducing maintenance time by 40%;
Cable Management Optimization: Built-in fiber routing channels and fixing clips, avoiding tangled wires and reducing splicing errors.
