1411855

Overview

Phoenix Contact part number 1411855 is a high-speed industrial Ethernet patch cable belonging to the NBC-R4AC-R4RC-IE8A series. It features an 8-position configuration supporting data transmission rates up to 10 Gbps. The cable assembly utilizes CAT6A specifications for network connectivity. It provides an IP20 degree of protection rating and operates within standard environmental conditions suitable for industrial networking applications.

Feature Summary

• Supports high-speed data transmission at 10 Gbps
• Constructed with CAT6A specifications for reliable signal integrity
• Designed as an 8-position industrial Ethernet patch cable

Applications

• Industrial Ethernet network connections
• High-speed data transmission links
• Automation system interconnects

Procurement Notes

Verify the specific cable length required, as the datasheet indicates variable lengths denoted by placeholders in the full part number. Confirm connector types match the application requirements. Ensure the IP20 rating aligns with the installation environment's protection needs. Check regional availability and shipping restrictions before ordering.

Selection Notes

Select this component when 10 Gbps performance is necessary for industrial Ethernet setups. The CAT6A specification ensures compatibility with modern high-bandwidth networks. Consider the 8-position layout for systems requiring multiple data pairs. Verify that the IP20 rating is sufficient for the intended mounting location.

Part Context

This cable is part of Phoenix Contact's NBC series, designed for robust industrial communication. It complements other Ethernet components in automation architectures. The product supports reliable data exchange between controllers, sensors, and actuators in demanding factory environments.

Replacement Considerations

Ensure substitute cables maintain 10 Gbps capability and CAT6A standards. Verify identical 8-position configurations and connector interfaces. Match IP20 ratings for environmental suitability. Confirm physical dimensions fit existing space constraints.