Power Cables Including Communication Wires TRIZ Cases

A single jacketed cable pairs power and control lines to cut lighting installation confusion, cable handling, and connection errors.

An encapsulated conductive network grades electric fields at cable joints and terminations, reducing insulator stress and breakdown risk.

Bend sensors along a flexible conduit let a processor infer end-to-end position, automating display reconfiguration when connected devices move.

A branched USB-C PD cable negotiates 5V-48V power while delivering HDMI video, cutting cable count for cinematography equipment.

A dual USB-C battery pack bridges bi-directional data while delivering variable power, reducing separate camera accessory connections.

A tube placed in the cable interstice shields the RFID tag from bending and twisting stress while preserving signal transmission.

Higher rigidity is assigned to insulated wires outside the inner sheath to suppress buckling and improve composite cable bending durability.

Polygon-arranged twisted signal pairs inside an inner sheath keep composite cables compact without sacrificing resistance to external noise.

Spiral-twisted redundant signal lines and stranded power wires cut cable diameter while preserving bending endurance and backup control paths.

Spiral twisting of control and sensor lines around a central axis shrinks composite cable diameter while improving bend endurance and crosstalk control.

Integrated communication and sensing fibers inside a power cable enable data transmission and early warning of cable safety risks.

Impedance changes in a longer-pitch twisted wire pair let this cable detect and count bends for timely replacement before breakage.

Powered repeaters embedded along DC power cables restore attenuated optical signals, extending submarine data links and cable monitoring.

A coaxial multi-strand cable layout cuts inductance and voltage oscillation while improving RRU connection workability in base stations.

Stacked power conductors and integrated communication lines raise current capacity while preserving flexibility and simplifying vehicle wiring.

Radially outer continuity wires detect cable cuts before power conductors are reached, enabling safer remote power and data distribution.

Separating sensing and signal processing with an FPC-linked module layout keeps sensors small, easier to place, and simpler to replace.

Circulating heat-transfer fluid through cable microfibers lowers charging-cable temperature without adding bulk, improving ultra-fast charging safety.

A detachable sensor and component module linked by a ribbon cable keeps sensing compact, improves placement, and extends unit life.

A single jacket bundles power and control lines with clear identification, reducing LED fixture wiring confusion while preserving reliable delivery.

Multiple pre-terminated cables are merged into one pushable, tapered assembly to speed code-compliant wall routing through apertures.

A loose binder lets the grounding wire stay in contact with spiral metal cladding, cutting wrap complexity, failure risk, and marking issues.

Channels formed in the wire and a deformable polymer layer keep optical fibers and filler from being squeezed out under oilfield strain.

One overall jacket encloses power and control conductors, cutting LED fixture cable confusion while preserving reliable signal and energy delivery.

An auxiliary power wire feeds the device-end active component, cutting VBUS current load to reduce IR-drop while keeping the cable thinner and softer.

Polygon vertex pairing of signal lines maintains twist pitch and prevents looseness, suppressing noise resistance loss during diameter reduction.

Integrating power lines and low-voltage coaxial conductors within a common shield simplifies manufacturing and reduces installation complexity.

A composite cable connects power and signal lines to flat panel equipment via a flexible printed circuit board at the narrow side surface.