Braided Wire Conductors TRIZ Cases

Lowering tube pressure brings the harness sheath into close contact with wires, cutting air insulation and improving heat dissipation.

Segmented dummy lines and tuned separation widths improve display antenna transmittance while reducing moiré and signal interference.

High-silica fiberglass yarn maintains conductor spacing and RF transmission in radiating coaxial cable during 1010°C fire exposure.

Varying insulating filament spacing lets a fixing member press conductive filaments firmly, improving wire harness shield connection stability.

A slack conductor inside a synthetic strength-member cable withstands surging tension while reducing weight, EMI, and handling damage.

A spring-expanded wire braid connector absorbs battery module spacing changes while maintaining wire contact to reduce stress, overheating, and arcing.

A mixed rigid-flexible high-voltage harness cuts vehicle mounting difficulty while reducing vibration noise, joint damage, and cost.

A spring steel insert guides shunt bending in charging contacts, reducing fatigue wear and preserving electrical continuity.

Spatially separated conductor branches with rounded monolithic joints improve vibration damping, cooling, and thermal expansion tolerance.

Microcoax cables embedded in a hybrid flex board extend high-speed links inside devices while reducing EMI and easing assembly.

Partially fused and unfused conductor sections let a busbar bend for installation while keeping stiff load paths for lower cost and better durability.

Interdigitated electrodes and co-knit active yarns spread current evenly across seat zones, enabling uniform custom heat shapes without higher voltage.

A 3D-printed semi-insulating layer raises air content uniformly, enabling smaller cables with stable high-frequency signal transmission.

Fused and unfused busbar segments combine bend retention with flexibility to absorb vibration, heat, and moisture stress.

A mesh electrode layout on a compressible substrate improves wearable force sensing accuracy while preserving flexibility and comfort.

Spring elements inside a wire mesh connector keep wires tight across battery module spacing changes, reducing stress, gaps, and overheating.

Direct braid-to-case connection removes shield shell parts, eliminating assembly gaps and boosting electromagnetic shielding reliability.

A conductive film combines a PEDOT polymer layer with a silver nanowire network to deliver high electrical conductivity and light transmittance.

Merges lock portions with the seal body to reduce connector size while maintaining water prevention reliability.

Composite coatings with metal-coated fibers dissipate heat while maintaining lightweight profiles, resolving weight penalties from high-density integration.

A ground connection structure uses low-inductance flat conductors to reduce electrical impedance and suppress noise voltage in vehicle systems.

Intertwined conductive and magnetic elements form a flexible sheath that reduces cable magnetic field intensity without bulky rigid structures.

A braider forms a flexible waveguide outer conductor from flat foil yarns using controlled carrier movement.

A braided flat conductive tape achieves flexibility by interlacing multiple strands of flat conductive material.

Segmented resin infusion reduces bracket weight while maintaining electromagnetic interference protection.

Tapered fiberglass reinforcement provides self-supporting rigidity for heavy conductors while maintaining flexibility for dynamic train carriage movements.

Optimized mold curvature distributes biting stress to prevent conductor damage while maintaining secure earthing holding force.

Interweaving non-conductor films with shorter conductor strips maintains high shielding performance while reducing wire weight and cost.

S-shaped wire patterns absorb mechanical stress during stretching, maintaining electrical connectivity and durability in flexible sensor chains.

A braided cable insulator structure reduces kink formation by organizing wires into independent strands that bend without propagating stress.

A stretchable conductor circuit uses a mesh structure of conductive wires encapsulated in a laminate to maintain electrical conductivity.