CP Outdoor Cat 6 UTP Semi-Copper Cable 305M

CP Outdoor Cat 6 Cable

The CP Outdoor Cat 6 cable provides a cost-effective solution for external network deployments requiring high-speed data transmission. This semi-copper medium utilizes Copper Clad Aluminum (CCA) conductors to maintain signal integrity while significantly reducing procurement costs for large-scale infrastructure projects. It features a ruggedized outer jacket designed to withstand environmental stressors and ultraviolet radiation. Consequently, network engineers can deploy this cabling in exposed environments without immediate degradation of the physical layer. The architecture supports standard Gigabit Ethernet protocols across typical horizontal cabling distances.

Key Features

• Environmental Resistance
  The Polyethylene (PE) outer jacket provides superior protection against moisture ingress and prolonged sun exposure compared to standard PVC.

• Internal Architecture

  • Central spline separator reduces Near-End Crosstalk (NEXT) between twisted pairs.
  • 23 AWG conductor gauge ensures physical durability during pull-through installations.
  • Four-pair unshielded twisted pair (UTP) configuration optimizes signal balance.

• Cost-Efficient Conductivity
  By utilizing semi-copper CCA technology, this product offers a lightweight alternative to solid copper while supporting 250 MHz bandwidth.

Specifications

What’s in the Box

• 1 x 305M Roll CP Outdoor Cat 6 Semi-Copper Cable

Why Choose This Outdoor Solution

• The specialized PE coating prevents brittleness and cracking in varied thermal conditions. However, installers must ensure proper bend radius during setup.
• This cabling supports Gigabit Ethernet speeds over standard distances. Therefore, it remains suitable for IP surveillance and external access point connectivity.
• CCA conductors provide a significant weight reduction for easier handling on ladders or towers. Additionally, the material helps manage project budgets effectively.
• The internal cross-filler maintains pair geometry under tension. Consequently, signal attenuation remains within acceptable parameters for high-frequency data transmission.