Cable Insulation Construction TRIZ Cases
- Microwave Irradiation Tip Structure for Stronger Tip-End Coagulation
A bent exposed central conductor shifts microwave heating to the tip end, improving coagulation and hemostasis while limiting base-end overheating.
- Microwave Emitting Tip Structure for Distal-End Heating
A bent exposed central conductor and concave slit redirect microwaves to raise tip-end heat for better tissue coagulation and hemostasis.
- Ultrafine Coaxial Cable Coating Structure for Smaller Diameter
Sequential dielectric coating and metallization enable 54 AWG or smaller coaxial cables with better flexibility and electrical performance.
- Ultrafine Coaxial Cable Manufacturing Beyond Extrusion Limits
Additive manufacturing enables 54 AWG or smaller coaxial cables, improving flexibility and navigation in confined medical spaces.
- Shielded Dielectric Communication Line for Low-Leakage Bending
A ribbed dielectric core inside a shielded rail structure cuts signal leakage and attenuation while allowing flexible routing in tight spaces.
- Spiral-Sheathed Cable Structure for Flexible High-Speed Signal Transmission
A spiral-wrapped sheath over an extruded twin-core structure improves cable bending, stability, and electrical performance for high-speed signals.
- Twin-Axial Cable Shielding Structure for Stable High-Speed Bending
Dual metal shielding and added insulation stabilize core wires, improve bending resistance, and maintain high-speed cable shielding.
- Smoothed Insulated Cable Shielding for Low Signal Skew
A smoothed insulator surface enables direct metallized shielding that removes air pockets, controls capacitance, and cuts timing skew.
- Differential Cable Dielectric Layout for Skew and Signal Integrity
Multiple dielectric layers with different permittivities help differential cables reduce skew and signal degradation despite conductor spacing tolerances.
- Shielded Twin-Core Cable With Air Cavity for Lower Signal Loss
Air cavities between insulated core wires and the shield lower dielectric constant, cutting attenuation and extending high-speed cable bandwidth.
- Differential Cable Dielectric Layer for Low Mode Conversion
A lower-dielectric intermediate layer balances shielded differential pairs to cut mode conversion, noise, and high-frequency signal loss.
- Coaxial Wire Film Layer Blocks Plasticizer Transfer
A coaxial wire incorporates a fused film layer between the internal insulator and external conductor to block plasticizer migration.
- Twinaxial Cable Insulator Geometry for Low Mode Conversion
Optimizing arc radii and conductor spacing in twinaxial cables reduces mode conversion while maintaining manufacturing ease.
- Dual Axial Cable Bifurcated Insulator Resonance
Bifurcated electrical insulators with higher dielectric constants minimize resonance caused by periodic impedance discontinuities in cable shields.
- Two-Core Shielded Wire Routing via Short-Axis Bending
Limiting route change points to 1.43 per meter suppresses transmission loss in high-frequency signals while enabling space-saving routing.
- Semi-Solid Audio Cable Air Void Design
A semi-solid audio cable uses spirally wrapped non-conductive thread to position the conductor within an air void.
- Downhole Cable Diameter Reduction via Nested Coaxial Design
Nested coaxial structure reduces downhole cable diameter below 4 mm while maintaining sufficient current carrying capacity for coiled tubing applications.
- Semi-Solid Balanced Audio Cable Air Void Design
A semi-solid balanced audio cable uses a spirally wrapped non-conductive thread to position the conductor within an air void.