Coupling Contact Members TRIZ Cases

A conductive terminal with segmented plate-shaped and elastic contacting portions creates stable electrical connections between mated connectors.

Segmented contacts in a staggered interconnection structure reduce lithography complexity and prevent shorts while maintaining storage density.

Reverse-stacked elastic plates in a connector improve yield resistance and connection stability for transient testing.

Segmented symmetric contacts disperse heat from high current flow, preventing sparking and explosions in hybrid vehicle connectors.

A metallic cage mounts an electrical receptacle connector with contacts routed to differential pair wires.

Inclined guiding portions on electrical connector terminals guide offset contact portions to regular positions, ensuring consistent connection pressure.

Blind openings in a cuboid conductive body accept modular connectors, resolving rigidity issues while maintaining manufacturing simplicity.

A receptacle connector uses segmented grooves to accept plug connectors with different contact arrangements.

Alternating offset apertures resolve safety distance conflicts while maintaining compact terminal strip designs.

A contact spring element rotates within a securing element to align with an opposing plug.

Abutting tapered shield shells reduce insertion force and suppress rattling without sliding contact.

A non-conducting bridge molded into the connector housing terminal cavity provides a physical barrier for male electrical terminals.

Axial housing extension fixes contact elements, eliminating undercut manufacturing complexity while maintaining reliable high current transmission.

An annular arc shaving portion removes oxide films before contact, reducing resistance without increasing terminal size or complexity.

A screwless terminal clamping spring extension increases contact surface area to reduce electrical resistance and heat generation in high current applications.

Retractable pins adapt to varying pin counts, resolving compatibility issues without equipment replacement.

A smart clothing connector uses a ground wire and insulated circular board to establish secure electrical connections.

A connecting element features a flat contact paired with an integrated press-fit leg to establish reliable electrical interfaces.

Resilient contact members in rail sockets adapt to conductor tolerances, increasing contact points to dissipate excess energy.

Asymmetric contacts on opposite tongue faces allow dual mating orientation, resolving single-direction usability constraints.

Resilient contact piece with guide beads stabilizes mating terminal insertion, eliminating shaking during connector engagement.

Asymmetrical terminal arrangements resolve the contradiction between high power delivery and device complexity by assigning larger dimensions to power contacts.

An impedance control tab on a flexible contact tail neck resolves the trade-off between mechanical flexibility and electrical impedance matching.

Frictional sleeve engagement between the spring body and socket body prevents fretting during vibration, maintaining electrical continuity.

Dense alumina insulator prevents low melting point glass formation through controlled sintering.

Spacing the intermediate patch tail end from the connection housing prevents antenna signal interference, improving transmission quality.

Elastic electrical contact elements deform perpendicularly to accommodate mating plugs, reducing wear on bearing seats and preventing thermal damage.

Elastic member deforms to expose contacts, preventing water ingress without complex metal-plastic assembly.