Superconductors/Hyperconductors TRIZ Cases

Composite Ag-Cu-Ni undercoat prevents moisture infiltration and pinhole formation while lowering material costs.

Controlled asymmetric surface roughness prevents substrate damage during handling while ensuring high crystalline orientation for superconducting layers.

Movable dielectric structural components arranged at specific intervals suppress cavity mode resonance in a planar microstrip filter housed in a metal case.

Metal-insulator transition layer insulates adjacent superconducting wires to enable rapid electromagnetic response.

A superconducting wire features a resin insulation coating applied to a laminated substrate with controlled surface roughness.

Strategic dielectric layering and superconducting shields reduce magnetic interference noise while managing device complexity in quantum processors.

A superconducting article joins segments via a low-profile splice and copper interlayer, reducing joint resistance while maintaining mechanical stability.

A superconducting wire uses a thin conductive protection layer to guide high-frequency currents through the superconductor.

Dynamic one-time codes generated by selective LED illumination replace static security codes, reducing fraud vulnerability in secure transactions.

A continuous Perovskite oxide superconductor layer uses clustered atom-replaced artificial pin structures to improve magnetic field characteristics.

Matching base member lattice constants to REA1-xREBxBa2Cu3O7-z layers optimizes orientation properties for higher critical current density.

A superconducting thin film combines a metal organic decomposition layer with a gas-phase-formed layer to achieve high crystallinity and low cost.

Directly connecting abutting phase layers in a superconducting cable joint eliminates Joule losses from resistive junctions.

Two-stage polishing achieves nanometer smoothness on tape-shaped substrates.

A superconducting wire uses a non-uniform coating thickness to enhance substrate bonding strength.

A carbon nanotube layer receives superconducting preforms through electric field actuation to form a composite wire structure.

Segmented ion beam deposition creates thin film laminates that prevent substrate element diffusion without inducing internal stress warping.

Composite sheath prevents Cu-Mg reaction and ensures uniform deformation, maintaining critical current density in superconducting wires.

A superconducting wire uses controlled adhesion strength between stabilization and protective layers to prevent structural breakage.

A direct superconducting-to-superconducting joint eliminates intermediate non-superconducting sections in cable assemblies.

A ferromagnetic magnetic shield member redirects external fields, reducing eddy current losses in thermal insulation pipes and lowering refrigeration loads.

Disruptive strips segment the superconducting layer into filament-like structures, reducing AC losses while enabling continuous long-length manufacturing.

Additives fix impurities in copper to boost residual resistance ratio, bypassing complex purification processes.

A flexible superconducting lead assembly cancels electromagnetic forces using an insulating separator between opposing wires.

Direct electrodeposition of stabilizer layer on superconducting tape via non-reactive solution preserves critical current without capping layer.

Segmented temperature movable structure reduces thermal deformation and insulation breakdown in superconducting cable terminals.

Metal reinforcing frames encase segmented superconducting bulk materials to absorb electromagnetic stress and prevent breakage during high-field operation.

Polar solvents with free hydroxyl groups enhance texture transfer in chemical solution deposition of high-temperature superconductors.

A superconducting wire connection structure incorporates a non-superconductor protrusion to create an oxygen supply gap at the joining portion.

High-reduction rolling and thermal treatment achieve strict biaxial crystal orientation, resolving inconsistent superconductivity in conventional substrates.

A terraced intermediate layer supports thick high temperature superconducting films for high ampacity transfer.

Copper plating thickness and surface roughness ratios prevent superconducting characteristic deterioration during repeated tensile testing.

Segmented superconducting tapes provide redundant bypass paths that prevent quench disruptions and ensure reliable current supply stability.

A high-temperature stretching process reconstructs the microstructure of second-generation superconducting tape to enhance current carrying capacity.

Mixed-order resonators increase power handling while attenuating undesired re-entrant frequencies.

An integrated superconductor device uses a single deposition chamber to form substrate, buffer, and superconductor layers in one continuous process.

Optimized REBa2Cu3O7-x composition stabilizes film thickness and controls artificial pin size to resolve crack formation limits in mass production.

Layering conductive materials onto HTS substrates enhances charge carrying capacity while maintaining low resistance above 100K without cryogenic cooling.

A superconducting lookup table uses RSFQ flip-flops for rapid parallel pipelined readout of stored data.

Iron-arsenic superconducting thin films enable Josephson junctions operating above 50 K using physical vapor deposition.

Adjusting wire quantities per section according to thermal gradients reduces manufacturing costs and connection time while preserving electrical reliability.

High-permeability magnetic layers divert normal AC field components in superconducting tapes, reducing hysteresis losses and refrigeration energy.

An anti-epitaxial film with large lattice mismatch simplifies buffer stack processing and enhances scalability of high-temperature superconductors.

An electrically isolating coating on the cooling surface maintains thermal contact while resolving electrical isolation and thermal conduction trade-offs.

Penetrating wedges join the stabilizing layer to the metal substrate, reducing quench-induced damage in high magnetic field applications.

Tapered superconducting wires cover inclined reinforcement insulating layers to prevent magnetic field leakage from large currents.

Alignment devices guide high temperature superconductor tapes through transverse slots to plastically deform them into a twisted cable bundle.

Cold drawing aligns nano-carbon additives in copper, while annealing recrystallizes the matrix to achieve high IACS values with minimal additive quantities.

Adding crack preventing chemicals to the coating solution enables stable formation of thick oxide superconductor films without cracking during calcining.

A segmented superconducting wire manufacturing method deposits multiple thin films on a heated metallic substrate to maintain high critical current.