H3AXG-10102-V6

Jumper Wires

Jumper wires, also known as jumper leads or jump wires, are solid electrical wires with connectors one each end used to interconnect different points on a circuit board. The connecting lugs used to either side may be crimped on, soldered on, or held on by friction. Jumper wires come in various lengths, colors and materials for further customization.

The H3AXG-10102-V6 is one such jumper wire designed for circuits requiring higher current than most standard wires can handle. It is a Teflon-insulated wire pre-crimped on both ends, available in several colors. This jumper wire is suitable for applications such as LED lighting, automotive, and industrial electronics.

The working principle behind these types of jumper wires is that electrons can freely move from one point to another due to the wires being pre-connected. This allows for resistance-less current flow, which in turn provides reliable and consistent connections, improving the functionality and stability of a circuit.

Pre-Crimped Leads

Pre-crimped leads are handy jumper wires that make interconnecting terminals and connecting intricate circuits much easier. Similar to jumper wires, these are available with connectors on both sides, with the connectors often made of the same material as the wire itself. The connectors are pre-installed and pre-crimped, which eliminates the need for additional labor-intensive activities such as soldering and wiring.

The H3AXG-10102-V6 is a 12-wire pre-crimp lead, made of Teflon insulated wire and available in several colors. This pre-crimp lead is suitable for LED lighting, automotive industry, and other industrial electronics applications. The lead is capable of connecting circuit boards and wires together efficiently and effectively.

The working principle behind these types of pre-crimped leads is that electrons are able to move freely from one connector to the next. The pre-crimped connectors provide a secure and reliably connection, allowing resistance-less current flow and improved signal stability.