A retaining frame uses mirror-inverted side parts to form a stable fastening surface and receiving region for plug connectors.
Conductive portions in positioning resin substrates form axial electrical paths, enabling accurate impedance matching for high-frequency signals above 10 GHz.
A spring pin assembly with a retention clip accommodates lateral substrate movement to prevent rubbing damage from thermal expansion mismatches.
A plug contact features a tongue-shaped profile and housings with obliquely arranged sealing surfaces to enable secure axial and transverse connections.
Asymmetric tongue structure resolves single orientation bottleneck by enabling dual mating orientation for plug connectors.
An embossed arcuate contact ridge on the female terminal reduces peak engagement force by 37 percent while maintaining final contact reliability.
Segmenting the primary and secondary spring beams reduces terminal mass while maintaining sufficient contact force for automotive connectors.
Stacked contact portions prevent foreign matter entrapment and maintain impedance characteristics during high-speed signal transmission.
Segmented slot openings with intermediary waterproof mats resolve the trade-off between ease of insertion and water resistance in blade connectors.
Lossy ground holder material absorbs electrical energy propagating on conductors, reducing standing waves and crosstalk while maintaining signal integrity.
A shielded electrical connector uses compliant surface tabs to fill gaps between grounding portions and the circuit board mounting surface.
Asymmetric guide channels prevent interchange errors during field assembly of multiple electrical conductors.
Segmented elastic terminals accommodate circuit board displacement for optical axis adjustment while reducing device complexity and weight.
Slider pressure tabs press inward on latch slider arms to eliminate gaps and prevent EMI leakage in high-speed communication systems.
Integrating grounding into stamped metal locking brackets eliminates separate components, reducing connector size and manufacturing costs.
A jumper connector uses guided conductive terminals to bridge board edge connectors across multiple circuit boards.