A hybrid SPE connector combines input and output interfaces in one shielded housing to simplify PCB layout, cut size, and lower connectivity cost.
A side-wall contact and internal waveguide connect the sensor board edge with less force, more optical-axis tolerance, and compact high-bandwidth routing.
A snap-fit insulating housing and seat align the conductive post and resilient piece to simplify assembly and stabilize plug contact.
Half-body parts with integrated cover and embedded sections enable narrow terminal spacing while simplifying precise insert molding.
A concentric housing separates mechanical stability from contact layout, cutting plug connector variants, assembly complexity, and storage cost.
A spring contact links connector shells directly to the PCB to avoid impedance mismatch, cut connector cost, and protect high-speed transmission.
A bent terminal end placed outside the inner wall avoids mating damage while preserving signal integrity and liquid-cooling heat dissipation.
A housing slit positions the mounting terminal guide portion directly, cutting stacking tolerances to improve terminal alignment and support miniaturization.
An inclined terminal arm and resisting portion create stable surface contact, improving chip module retention and electrical connection.
Splitting the connector into half bodies with alternating terminal tails enables narrower pitch while improving molding precision and reliability.
A nested insulator structure joins a wire to a sheet conductor in less space while lowering resistance and improving connection reliability.
Retaining grooves and wafer blocks lock the wafer in the housing cavity to stop vertical loosening and maintain stable electrical connection.
A rotatable top cover presses the circuit board and stays constrained to the terminals, improving contact stability under vibration.
A recessed front mask lets an inspection slider contact the retainer body, improving incomplete terminal insertion detection in compact connectors.
Parallel inlet channels in a liquid cooling plate improve heat removal in high-power electrical connectors, extending component reliability.
A three-position retainer confirms full connector mating while restricting locking lance deformation to improve assembly efficiency.
A seesaw-like terminal structure maintains film wire continuity under misalignment and prying force, improving connector contact integrity.
Dual anti-detachment members clamp a crown spring inside a sleeve, preventing slide-out while avoiding costly welding or full machining.
A segmented shielding shell forms two perpendicular mating cavities, letting one connector mate in different directions with simpler assembly.
A slit cylindrical female terminal bends outward to create contact load, cutting parts and assembly while keeping low-resistance, high-current connection.
Overlapping terminals of different widths increase connector layout freedom while keeping inter-terminal distances and overall size under control.
Curved reinforcement fitting sections let compact low-profile connectors control side and end surface positions with higher strength and less solder adhesion.