Copper Laminated Flexible Jumper

Product Details:

A copper flexible jumper, also known as a copper flexible connector or copper braided jumper, is a type of electrical conductor made from copper strands braided together. Here's an overview of its features and applications:

1. Conductivity: Copper is an excellent conductor of electricity, making it an ideal material for flexible jumpers. The braided construction increases the surface area of the conductor, reducing resistance and ensuring efficient current flow.

2. Flexibility: The braided design of copper flexible jumpers provides flexibility, allowing them to bend and flex without breaking or losing conductivity. This flexibility makes them suitable for applications where movement or vibration is present, such as in electrical panels, switchgear, or industrial machinery.

3. High Current Capacity: Copper flexible jumpers are capable of carrying high currents, making them suitable for use in high-power applications such as electrical distribution systems, power generation plants, and industrial equipment.

4. Low Resistance: The low resistance of copper ensures minimal power loss and heat generation, resulting in efficient electrical transmission and reduced energy costs.

5. Corrosion Resistance: Copper is highly resistant to corrosion, ensuring long-term reliability and performance even in harsh environments or outdoor installations.

6. Versatility: Copper flexible jumpers are available in various lengths, sizes, and configurations to suit different applications and installation requirements. They can be custom-designed or pre-manufactured to specific specifications.

7. Connection: Copper flexible jumpers are typically terminated with copper lugs or connectors at each end to facilitate easy connection to electrical terminals, busbars, or equipment. These connections are usually made using compression or mechanical crimping techniques to ensure a secure and reliable connection.

8. Temperature Rating: Copper flexible jumpers have a high temperature rating, allowing them to withstand elevated temperatures without degradation of performance. This makes them suitable for use in applications where temperature variations are common, such as in industrial environments or electrical enclosures.