0457501111-11-B0

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• Jumper Wires
• 0457501111-11-B0 application field

Jumper wires are mainly used to connect two different circuits, modules, and devices together. The versatile feature of jumper wires makes them applicable for a wide range of applications, such as appliances, robotics, automotive, consumer electronics, military, telecommunications, and industrial automation. Additionally, jumper wires are also used in computer building, prototyping, and testing of different electrical connections.

• 0457501111-11-B0 working principle

The working principle of jumper wires relies on the electrical conductivity of its material. A jumper wire contains two core wire strands which are covered with an insulating sheathing. These core wire strands can be made of different materials such as copper, aluminum, nickel, and steel. The insulation sheathing can be made of silicone, rubber, cotton, plastic, etc. The core wire strands of the jumper wire is connected to each other on one end and to the two terminals of the two circuits or devices on another end during installation.

• Pre-Crimped Leads
• 0457501111-11-B0 application field

Pre-crimped leads are primarily used in the field of medical and automotive industry for an electronic connection between batteries, computers, switches, and other components. Pre-crimped leads are usually manufactured using high-scient, medical-grade copper wires and are reliable in achieving good electrical conductivity. In addition, pre-crimped leads are flexible enough to fit into tight spaces to facilitate compact installations.

• 0457501111-11-B0 working principle

The working principle of pre-crimped leads relies on the crease and jog created when the lead is crimped. The crimping process involves using a tool to press two terminals of a conductive wire against each other with great force at the desired spot. The force applied on the two terminals create a crease and jog in the area where the two terminals come in contact. This deformation of the material creates greater resistance and allows better electrical conductivity between the two surfaces.

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