Structured Cat6/Cat6A Cabling & Fiber Optic Networks
High-performance passive network backbones, single & multi-mode fiber fusion splicing, patch panel dressing, and FLUKE channel testing across Kenya.
Network Infrastructure Capabilities
Certified installation following international structured cabling standards.
Cat6 & Cat6A Gigabit Cabling
High-density ethernet cable pulling, RJ45 module punch-downs, trunking, and wall faceplate installations.
Fiber Optic Fusion Splicing
Single-mode & multi-mode fiber fusion splicing, building-to-building links, OTDR testing, and fiber patch bays.
Patch Panel Wire Prep
Clean cabinet cable bundling, wire dressing, patch cord routing, and numerical identification tags.
Fluke Channel Certification
Comprehensive signal loss, cross-talk, and bandwidth throughput testing with formal report handovers.
Cabling Deployment Workflow
Systematic installation practices ensuring high data throughput and easy troubleshooting.
1. Path Audit
We trace containment routes, measure point distances, and identify core cabinet locations.
2. Design & BOQ
You receive an itemized Bill of Quantities detailing cable drums, patch panels, modules, and labor.
3. Pulling & Termination
Technicians pull cables through trunking, terminate faceplates, and dress patch panels cleanly.
4. Testing & Handover
Every port is channel-tested with a Fluke analyzer, labeled, and certified in the final project handover.
Sectors Powered by Our Cabling
Enterprise connectivity backbones for demanding commercial spaces.
🏢 Commercial Towers
High-density office floor data points and riser cabling.
🎓 Educational Campuses
Multi-building fiber backbones connecting lecture halls and labs.
🏭 Industrial Plants
Heavy-duty shielded copper and outdoor armored fiber cabling.
🏦 Financial Institutions
Redundant fiber loops and high-security patch panels.
Structured Cabling FAQs
What is the difference between Cat6 and Cat6A cabling?
Cat6 supports up to 1Gbps at 100 meters (and 10Gbps up to 37-55 meters), whereas Cat6A supports full 10Gbps speeds at 100 meters with superior shielding against alien crosstalk.
Why is fusion splicing preferred over mechanical splicing for fiber?
Fusion splicing uses an electric arc to melt two fiber optic glass ends together precisely, delivering significantly lower signal loss (attenuation) and much higher mechanical durability.
