Coaxial Cables/Analogue Cables TRIZ Cases

Stored cable parameters let test equipment identify cable properties automatically, cutting manual setup effort and configuration errors.

Microwave absorbers wrapped near shielded cable connectors suppress EMC noise currents across wide frequencies without degrading Ethernet signal integrity.

A hard first covering protects wire-to-electrode joints, while a softer outer covering preserves cable flexibility in tight spaces.

Liquid sealant hermetically coats audio cable joints to block corrosion and oxidation, strengthen the connection, and reduce signal noise.

Conductive links between inner and outer shielding foil layers block parasitic wave paths, reducing reflections and signal loss at cable plugs.

Controlled interlacing, tie bars, and binders keep twinax conductor pairs aligned through tight bends to preserve signal integrity.

An optical path inside the RF cable tracks temperature and movement changes, enabling real-time calibration for stable high-frequency measurements.

An inorganic sintered bond seals overlapped metallic foil edges to block moisture ingress while preserving cable flexibility for submarine transmission.

Movable lattice insulation segments vary dielectric properties along a data line to tune impedance, cut insertion loss, and keep cable flexibility.

Filling the gaps in a braided data cable helps block dust and stains while preserving flexibility, durability, and EMI shielding.

A rail-guarded micro-coaxial section passes through 3 mm window or door gaps while preserving impedance, RF signal quality, and DC current flow.

A long transmission line delays reflected arcing current in nsPEF systems, protecting the pulse generator before short-circuit damage occurs.

A long transmission line delays reflected arc current in nanosecond pulsed power sources, protecting the generator with minimal pulse distortion.

Laced, stacked twinax cable sets keep conductor pairs laterally aligned through tight bends, preserving signal integrity in confined routing.

Mineral nucleating agents enable cable polymer foams with finer, more uniform cells and low dissipation factor without harmful blowing agents.

Filling the gap at a folded coaxial shield wire suppresses partial discharge, stabilizes the electric field, and protects TOF mass spectrometer accuracy.

Larger preforms and controlled PTFE extrusion reduce seams, thickness variation, and property drift over long cable-length articles.

A conductive grounding member links multiple antenna cable outer conductors within a quarter wavelength to stabilize ground potential and suppress noise.

An internal stopper blocks molding gel from entering the inserting portion, preserving clean socket contact in overmolded coaxial connectors.

A split ground mesh with circular holes and overlap connections reduces bend cracks and limits insertion loss change in flexible PCB RF cables.

Non-uniform insulative strip pitch around a cable shield cuts high-frequency attenuation and supports higher bit rate transmission.

Alternating conductive and dielectric tape segments cut alien crosstalk, improve PoE heat handling, and avoid grounding bulk in cables.

Rails beside a micro-coax cable absorb window-gap compression and bending, preserving impedance and signal integrity through repeated closure.

Varying pair lay lengths and adding titanium dioxide to insulation cuts delay skew and crosstalk without shielding or foamed components.

Paired wind turbine power conductors with near-opposite AC phases cancel magnetic fields and reduce disruption to marine and land wildlife.

Blending ethylene-based polymer with an olefin block copolymer improves cable jacket flexibility while retaining tensile strength and elongation.

Non-homogeneous dielectric strips increase conductor coupling in twinax cables and stripline PCBs to mitigate intra-pair skew and insertion loss.

Dual high-temperature wires, fireproof separator nodes, and tensioned supports keep RF communication working during structural fires.

Layered solid and foamed insulation lowers dielectric constant, stabilizes impedance, and improves cable bending for high-frequency transmission.

Chemically pretreated CNT yarn with metal-plated twisted wires cuts RF insertion loss while keeping cable weight far below copper.

Pinched shielding films bonded by adhesive let this cable bend tightly while keeping impedance stable for high-speed transmission.

A single ground bar connects all coaxial outer conductors in one step, simplifying connector grounding while preserving electrical connectivity.

Wire pairs routed on both PCB surfaces reduce overlap, enabling one-pass laser exposure and simpler connector cable assembly.

A ground-wrapped signal bundle with filling medium cuts MIPI C-PHY link loss and interference, extending transmission distance and decoding stability.

A 60°-64° metallic braid angle improves multi-core cable bend and twist durability without adding complex structure or costly materials.

Thin shielding films and bonded pinched sections let conductor sets bend tightly and be mass-terminated while keeping impedance stable.

A symmetric PCB capacitor layout with an iron core replaces costly ring capacitors, simplifying coaxial isolator assembly while limiting RFI.

Pinched shielding films and bonded adhesive layers let this cable bend tightly while keeping impedance variation low for high-speed transmission.

A non-circular helical fitting matches flat or shaped cable profiles to increase contact area, improve holding strength, and prevent slippage.

Side-by-side coaxial channels with a gel film sheath cut RF leakage and noise while keeping ribbon cable thickness low for tight spaces.

Fixed wire spacing with silica cement and refractory separator nodes preserves RF impedance and communication during structural fires.

A bonded outer foil with an overlapped sealant joint blocks moisture migration in coaxial drop cable, reducing corrosion and signal loss.

A resistive coating on part of a coaxial conductor tunes impedance and attenuation to match longer cables while limiting reflections and crosstalk.

Exposed coaxial outer conductors share grounding paths to shrink multicore cable diameter, improve flexibility, and avoid impedance mismatch.

A three-region twinax cable layout exposes conductors and grounding points without deformation, reducing impedance mismatch and signal noise.

A hollow coaxial line carries RF or microwave energy and optical radiation in one flexible cable, preserving power delivery in ultra-small electrosurgical scopes.

A single 50 ohm coaxial cable combines camera power, control, and serialized image transfer while reducing attenuation and bending-related signal loss.

Spaced metal units on a cable shield create a passband that cuts antenna-path shielding and preserves array radiation patterns.

Adding 0.05-2 wt.% carbon black cuts polyolefin cable jacket shrinkage below 0.9% while preserving MFR2 and mechanical strength.

A coplanar ground-signal layout with spring contact probes preserves coaxial continuity at cable connections to cut measurement noise.

An embedded coaxial line in the wiring substrate replaces costly RF cables and terminals while preserving shielding and reliable board-to-board signal transfer.

A layered insulating stack lowers dielectric loss near the transmission line while preserving close contact and bending resistance.

A second airtight seal blocks moisture between coaxial cable sheaths, preserving insulation resistance and reducing signal noise.

Resin tape fixed at both cable-end sides spreads handling stress away from soldered joints, preserving stable high-frequency transmission.

A probe cable assembly uses a plastically deformable guiding element to fix the cable arrangement in a predetermined relative position.

Segmented shielding films reduce insertion loss below -20 dB/meter while suppressing far-end crosstalk for 10 Gbps data transfer.