Cable Conductor Construction TRIZ Cases

A transmission cable couples display interfaces using a shielded signal wire to carry differential signals over extended distances.

Angled bimetallic outer conductor tabs resolve welding difficulties from disparate metal melting points, enabling lower-cost production.

Alternating ferromagnetic and non-magnetic layers cancel eddy currents to reduce RF conductor losses at high frequencies.

Spiral wound resin tapes constrain shield tape gaps to suppress signal skew and attenuation.

Ceramifiable silicone rubber dielectric converts to porous ceramic at high heat.

A double-shielded coaxial cable uses braided shields and aramid fiber reinforcement to enhance flexibility.

A leaky coaxial cable embedded in a steering wheel detects driver hand presence via electromagnetic wave reflections.

Multi-layered shielding foil forms a circumferential connection via an overlap region to enable transverse current flow within the conductive layer.

A shielded electrical conductor replaces heavy copper screens with a carbon fiber-plastic composite to reduce cable weight and lower vehicle fuel consumption.

A coaxial cable shield layer combines helical metal wires with a hot dip plating coating to enhance structural flexibility.

A plug-in antenna module adapts building electrical wiring to capture radio signals via insulated conducting wires wound around a third conductor.

Dynamic arms guide strands in a periodic motion to resolve the contradiction between manufacturing precision and production throughput.

A coaxial cable outer conductor uses a bimetallic tubular layer with bevelled edges to form a longitudinal seam joint.

Ceramifiable silicone rubber dielectric converts to porous ceramic structure at high temperatures, maintaining spacing between conductors during fire exposure.

Compressing bunched strands into a substantially circular cross section eliminates surface recesses that weaken mechanical strength under lateral pressure.

Segmented thin wire strands and latent heat storage intercept thermal load peaks while maintaining radial stability during bending.

Segmented winding shield layer prevents gap formation between the shield and insulator when bent, suppressing signal attenuation in high-speed transmission.

Segmented shielding tape reduces cable bulk and cost while maintaining electromagnetic interference protection through distributed coverage.

A longitudinally folded metal shield tape stabilizes the shielding effect on parallel pair cables, reducing common mode output caused by distance fluctuations.

A braided shield layer combines copper tinsel wires and metal wires to enhance mechanical flexibility in industrial robot cables.

An inverted cable design uses a middle conductor for signal transmission to reduce loss by at least 50% compared to conventional center conductor cables.

Macro cell structures in the insulator prevent cell collapse, enabling stable signal transmission with reduced return loss.

A corrugated coaxial cable uses an air layer between the insulator and outer conductor to reduce dielectric constant.

Common shielding and helical geometry suppress crosstalk while reducing cable diameter by 30 percent.

Autogenous welding joins a copper-nickel alloy sheet to form a continuous water barrier layer around the submarine power cable core.

A transmission medium with hollow pathways guides electromagnetic waves without an electrical return path.

A tubular bimetallic coaxial conductor uses bevelled edges to join lower melting point metal layers while keeping higher melting point edges solid.

A cable shield void positioned between conductors balances dielectric constants to minimize signal skew.

Varying the lay length of stranded conductors breaks periodic deformation patterns, eliminating peak interference at specific gigahertz frequencies.

Replaces complex braiding with extruded semi-circular conductors, reducing manufacturing time from 54 hours to six.

A coaxial wire structure uses a catalyst adsorption film to facilitate uniform electroless plating of the outer conductor.

Segmenting the braided shield enables accessible grounding without compromising water resistance, resolving multi-core cable branching challenges.

A carbon nanotube cable uses electroplated conductive cores and braided shielding to lower overall mass while preserving signal integrity.

A coaxial audio cable uses a PVC release liner between the dielectric and conductive PE layer to ensure easy separation during manufacturing.