Superconductors/Hyperconductors TRIZ Cases

Curved R-faces on the substrate side faces prevent exfoliation and ensure uniform film deposition for reliable superconducting wires.

Segmented twisting and Peltier cooling reduce cable weight while maintaining structural integrity for aircraft installation.

Eccentric cable positioning accommodates thermal contraction, eliminating complex centring mechanisms and reducing eddy current losses.

A superconductor tunneling barrier enables evaporative cooling of a graphene sheet via bias voltage application.

Segmented buffer layers establish biaxial texture for superconductor deposition, reducing ion-beam processing time and cost.

A second superconducting wire thermally couples to a primary conductor to detect hot spots through rapid phase transitions.

A superconducting coil module uses integrated heating patterns to control threshold currents across individual turns.

Slits with narrowing intervals along a bent conductor line reduce current density at inner edges, lowering conductor loss while maintaining high power handling.

Reduced oxygenation time and low-temperature silver deposition streamline manufacturing while maintaining critical current performance.

A metal assembly with a thermally conductive layer on insulated superconductive wire provides isotropic heat conduction in wound coils.

Copper stabilizer material with magnesium compounds fixes impurities to achieve high residual resistance ratio.

Interleaved high-power wires and liquid cooling lines in a low-inductance cable deliver pulsed light to cure thin films on low-temperature substrates.

A segmented cooling system chills superconducting interconnects to distinct cryogenic temperatures using dedicated thermal management apparatus.

A heat conduction assemblage conducts thermal energy away from superconductive conductors to maintain steady-state temperatures below the critical threshold.

Superconducting joints eliminate ohmic losses and heat generation in Bi-2212 conductors, enabling persistent current operation without external power supplies.

A superconducting thin film structure uses a passivated metallic intermediate layer to enhance adhesion between the substrate and oxide coating.

A superconducting cable terminal uses a vertical conductor with a through-hole to support a horizontal conductor via sliding movement.

Paired bobbin bodies connected by inner circumference-side tension members bind the air-core coil, preventing frictional heat and quench occurrences.

A superconducting wire design adjusts the width-to-height ratio to 0.8–10 and limits width to 2 mm for compact handling.

Alternating supporting and thermal conduction layers in the coil package distribute electromagnetic forces, reducing stress on coils and preventing quenching.

Photoionization and magnetic fields segregate plasma components into distinct channels, reducing electrical resistance in long-distance energy transmission.

A bucking bundle cable uses three-conductor magnetic cancellation to reduce alternating current losses in low voltage superconducting applications.

Metal stabilization layers protect thin oxide superconducting filaments from moisture deterioration and quenching while maintaining mechanical strength.

Alloying magnesium diboride with aluminum lowers the critical temperature to 20 to 25 K, keeping the unimmersed portion non-superconducting without heating.

Copper stabilizer forms compounds with sulfur and selenium to boost residual resistance ratio, avoiding expensive ultra-high purity copper requirements.

A high temperature superconductor component uses segmented electrical shunts to divert excessive current and prevent hot-spot formation.

Controlled terminal resistances ensure uniform current distribution across parallel superconductors, preventing overheating from non-uniform load sharing.

Co-winding tin-lead soldered REBCO tape with oxidized stainless steel balances quench protection and ramp losses by tuning turn-to-turn contact resistance.

Metal oxide semiconductors in the channel formation region enable high-speed operation while reducing power consumption and circuit area.

Tantalum alloy diffusion barriers protect superconducting filaments within copper matrices.

An intermediate tube isolates coolant from the dielectric, preventing breakdowns caused by refrigerant vaporization during long-distance power transmission.

Rupture disk connects cryostat interiors to expand hydraulic cross section, preventing inner container damage from localized heat load.