Vehicle Connectors TRIZ Cases

A secondary clamping structure braces mated plug-in connectors to resist vibration, limit contact abrasion, and maintain low transfer impedance.

By using the cover shoulder and rail to hold the terminal housing, this connector assembly removes separate position locks and speeds alignment.

Support elements placed in unused plug connector chambers raise transverse tensile strength without thicker housing walls or added bulk.

A clamped PCB and seal element protect EV supply cable connectors from shock, vibration, dirt, and moisture without heavy potting.

Rotating magnetic alignment and radial contacts keep a plug bonded while masking contacts, maintaining seal-tightness, and easing disconnection.

A dual-purpose terminal lock secures both terminal arrays and the terminal module, enabling mixed conductor and high-speed data connections with less complexity.

Two elastic contact members expand terminal contact area in high-current circuits, cutting heat generation without increasing connector size.

Magnetic attraction secures the EV charging connector during charging to prevent forced removal, port damage, and poor contact.

An internal PCB links high-speed data headers to diagnostic ports, replacing manual splicing to cut cost and resist pull-force disconnects.

An annular shield band with integrated seals keeps the connector watertight while maintaining electrical shielding continuity in high-power use.

A single molded housing feature combines fluid drainage and bracket fixing in a vehicle charging socket, reducing size, plastic use, and molding time.

Two elastically deformable contact members widen terminal contact area to cut heat generation without enlarging the connection structure.

A branched trunk line with distributed control boxes simplifies vehicle wire harness routing, supports added wiring, and lowers manufacturing cost.

Split inner housings with dedicated wire and sleeve holding portions reduce shaking in cable connectors and keep impedance stable under shock.

Two nested sealing caps isolate disconnected connector cavities from dust and particles during storage, preserving reliable signal or fluid connection.

Staggered plug contacts connect drive power before auxiliary load power, preventing ECU misjudgment and improving vehicle power reliability.

A trunk line with distributed control boxes simplifies vehicle wire harness routing, making new power and signal branches easier to add.

A detachable EV charging cable interface uses keyed connections and fastening detection to replace multiple cables, reducing vehicle weight and cost.

A guide rib, movable fastener, and magnetic attraction align battery pack connectors to prevent misalignment damage and connection failure.

By routing wires in the connection direction and clamping them in the lead-out portion, this connector cuts size while maintaining vibration resistance.

Housing protrusions hold the ferrite core before cap engagement, preventing rearward dislodgment and reducing connector rattling.

A vertical socket opening lets different micromobility vehicles connect at varying plug heights while keeping charging contact reliable.

Embedded conductive paths monitor charging plug housing cracks in real time, helping prevent electric shock, fire risk, and charging downtime.

A rotatable faceplate and adjustable cover hinge let one vehicle AC outlet fit multiple regional plug layouts while reducing outlet variants.

An overmolded conductive stud creates a grounding path through a composite battery enclosure while preserving sealing and distributing fastening loads.

L-shaped conductive heads rotate up to 360° to route stiff high-power cable sections without bending, easing aircraft installation.

Dielectric isolation and capacitive filter bridges limit shield currents in plug connectors, preventing contact damage and data interference.

Rotor position control boosts multi-input EV charging efficiency and enables 400V and 800V charging without intermediate voltage boosting.

Offset high-power contacts linked by an inserted conductive rail save housing space while keeping current distribution stable and service access practical.

A flat braided grounding link shaped as a spring absorbs multidirectional vehicle loads, extending service life and EMC reliability.

A conductive plug and elastic sealing sleeve close the mounting hole to add EMC shielding and waterproofing without extra cover complexity.

A centrally symmetric terminal layout lets a vehicle battery plug connect in either orientation while preventing reverse polarity short circuits.

A flexible sensor lead connects directly to the adapter terminal, avoiding rear cover perforations and seals to simplify EV charging socket assembly.

A detachable cooling module conducts terminal heat into liquid flow, boosting high-current connector cooling without altering the main assembly.

A sacrificial side contact and frontal operational face raise contact pressure, current capacity, and plug-cycle life under load.

A triangular rigid cap with a gripper-ready handle seals a mining machine charging inlet from debris and moisture while enabling automated mating.

A resilient connector support in a battery disconnect unit absorbs connector misalignment, easing tolerances and speeding assembly.

Short- and long-term pixel averaging helps an optical motion sensor adjust its background and suppress false motion alarms from abrupt light changes.

Press-fitted spring members deform into housing grooves to stop connector looseness while lowering mating force and locking complexity.

A rotatable cable connector engages a housing retainer to prevent accidental disconnection and maintain steady power in vehicles.

Removable adapter contacts let damaged Ethernet connector interfaces be replaced without discarding the housing, cutting repair waste and cost.

Parallel contact rows and a dedicated routing channel improve differential pair signal quality, frequency range, and automotive manufacturability.

Separate shielding for each twisted pair reduces vehicle EMI and preserves stable Ethernet data transfer under strain and harsh weather.

A rotatable interface part converts tool rotation into cover sliding, enabling precise high-force connector locking in tight spaces.

A retractable pusher and locking assembly automatically ejects the EV charging connector, improving removal convenience in unsafe or harsh conditions.

A lever-mounted brush clears debris between the housing and lever arm, preventing inlet actuator sticking during charging plug lock and release.

A bent socket fixes signal pins horizontally or vertically, improving board layout freedom, space use, and compact power module design.

An internal shell spring piece creates elastic contact with the outer conductor, removing joining steps while keeping electrical connection reliable.

A hinged fixed-and-movable cover protects EV DC charge ports while allowing safe fast charging and AC/DC charging compatibility.