A medical instrument connector uses a presser ring to compress waterproof packing between plug and sheath components for secure assembly.
Pre-molded and over-molded materials cover the connector rear while a spin ring with a wiggle ring constrains axial, angular, and side-to-side cable movement.
A mounting seat integrates wire limiting structures to redirect bending forces away from solder joints.
Guide pin groove receives secondary latch to secure blind-mate electrical connectors without visual verification.
Looping the fold-back section of a reinforcement cover around a strengthening member prevents jacket deformation under tensile loads.
Housing ridge deflects cover latch via inclined surfaces to resolve size reliability trade-off in small pitch connectors.
Rotating electrical contacts inside a universal plug body resolves the trade-off between adaptability and component complexity.
Rotatable socket assembly reduces wiring strain from vehicle-trailer angle shifts, extending connection lifespan.
Adapter housing with receiving groove absorbs mating forces into the housing wall, protecting solder joints from stress.
A connector housing uses a V-shaped carriage to drive clamping jaws along a guide rail for secure cable fixation.
Segmented tube fixing portions with specific positioning holes resolve vibration disengagement while maintaining compact design.
A universal hermaphroditic seismic cable connector simplifies field deployment by allowing bidirectional connections without adapters.
Conductive rivets crimp through vias to join wires to PCB traces, eliminating solder thickness that blocks light guides in edge-lit displays.
A connector back shell uses a single transition element with multiple holes to orient wiring cables at various angles.
Segmentation and intermediary components enable reliable electrical integrity in harsh downhole environments while simplifying assembly complexity.
Embedded reinforcing devices within the serving layer prevent terminal pull-outs under lateral tension, resolving reliability and complexity trade-offs.
A connector plug anchors a tensile string using an annular element and transverse pin to transfer axial loads directly to the housing.
A connector embeds a substrate and terminal in a synthetic resin housing via insert molding.
Guide groove and rotation restriction rib prevent hinge twisting misalignment, ensuring smooth closure of paired electric wire covers.
Multi-segmented electrical security cable uses over-molded connectors to join insulated segments for retail inventory protection.
Segmented connector cover design positions elastic hold arms within upper cover storage portions to distribute tensile forces away from locking parts.
An inclined insertion of the locking protruding portion into the locking groove prevents unintended disconnection under upward force.
A connector system uses a friction fit backshell to mechanically secure shielded wire bundles without soldering.
Centralizing ribs in the wire holder constrain varying wire diameters to prevent misalignment during insertion into insulation piercing contacts.
Segmented plug assembly with threaded coupling prevents moisture ingress and wire corrosion while maintaining hermetic seal integrity.
Resin molding seals cable conductors while elastic retention mitigates misalignment forces, preventing gas leakage and connector damage.
Mobile jaws clamp cables against axial stresses while maintaining sealing integrity in the rear grid of a sealed electrical connector.
An inclined locking ring engages housing grooves to resist axial forces and prevent cable disconnection.
A cable connector assembly integrates a metal shell over an insulative plug to provide structural support and electrical grounding.
A low-profile electrical connector uses latch arms to engage plugs and form a moisture-resistant seal.
Segmented hard receiving section and soft cladding prevent injection molding impact on soldering portions, increasing yield rates.
Helical wires engage a sleeve member to prevent displacement, satisfying UL pull tests without adding blocking components.
Integrated guide slots in a hinged cover constrict cables to prevent stress transfer, eliminating separate securing devices and reducing assembly complexity.
Segmented housings protect the lock release from accidental triggering while damping rings absorb wire vibrations to prevent terminal damage.
Curved latch arm deflects to secure strain relief, reducing interconnect size while maintaining mechanical reliability.
Segmented housing shells with ledges are secured by a longitudinal coupling slot that presses projections together, enabling disassembly for internal access.