Superconductors/Hyperconductors TRIZ Cases

A superconductive cable design uses oriented wire rods to reduce alternating current loss in power transmission systems.

A low-temperature copper diffusion plateau homogenizes the tin mixture in niobium-tin superconducting strands before the main reaction stage.

A superconducting wire design uses coating layers with varying adhesion strengths to detach from the substrate under thermal stress.

Segmented parallel strands with magnetic shielding suppress AC losses and distribute electromagnetic forces to prevent burn-out.

Copper layer deposition on superconducting tape simplifies metal lamination and prevents oxidation.

Internal oxidation refines Nb3Sn grain size to 5-90 nm, boosting critical current density and flux pinning force in high-field magnets.

A three-layered insulating structure in superconducting cables suppresses dielectric loss while maintaining high withstand voltage performance.

Segmented nickel layers with varying concentrations reduce hysteresis loss while maintaining biaxial crystal orientation.

Protective layers on alloy wires prevent chemical degradation during heat treatment, maintaining critical current density under electromagnetic stress.

A cylindrical magnetic shielding apparatus uses a revolving door mechanism to provide access while maintaining field isolation.

A superconducting wire uses metal organic deposition to form a smooth intermediate layer on a textured substrate.

Austenitic stainless steel substrate with low chromium content supports biaxially oriented oxide-ceramic layers for high current density HTS tapes.

Fluoride-based solution deposition replaces costly vacuum systems to produce thick superconducting films with high critical current density.

A peelable superconductive conductor uses a removable carrier body to support the thin substrate during manufacturing and handling.

Integrating the current limiter inside the vacuum vessel eliminates external wiring, reducing complexity and preserving vacuum reliability.

Metal coating layer bonds superconducting thin film to stabilizing substrate, preventing detachment during heat-treatment.

A planar bifilar superconducting conductor arrangement minimizes inductance and alternating field losses through spiral winding on a common plane.

Segmented Nb-based reinforcement filaments in a copper matrix prevent localized weakness and wire breakage during processing.

A magnetic Josephson junction uses a ferromagnetic barrier to generate single flux quantum pulses for superconducting memory cells.

A conductive ceramic barrier layer coats the metallic substrate underside to prevent oxidation during thermal processing.

An REBCO coated conductor achieves high critical current density via intrinsic pinning, eliminating extrinsic dopants and complex processing steps.

Transposing flat superconducting tapes breaks magnetic flux coupling loops, reducing energy loss in AC and DC power transmission.

Segmented Ag and Cu layers protect against burnout while maintaining wire flexibility for easier bending.

Dual scales on opposite PCB layers enable precise registration offset measurement during exposure.

A superconductor cable connection arrangement uses splicing devices and semi-conductive coverings to join central conductors and shields within cryogenic enclosures.

Dynamic swaging forces precursor particle deformation and adhesion in soft metal sheaths, resolving bonding gaps while preserving magnetic flux pinning force.

Segmented MgB2 sintered bodies secure filaments mechanically while providing electrical joints without damaging critical current properties.

Pre-alloyed Nb-Zr rods within a niobium barrier form nanoscale oxide particles that boost critical current density while reducing manufacturing complexity.

Cu-Zn alloy matrix prevents vacancies during Sn diffusion, maintaining mechanical strength while increasing Nb3Sn volume.

Excimer laser ablation creates precise dividing grooves in oxide superconducting layers for multi-filament wire manufacturing.

A superconductor element within an enclosure exploits the Meissner effect to concentrate magnetic flux density in targeted gap regions.

A superconducting wire connection structure uses concave sections filled with material to join wire ends without damaging the superconducting layer.

A flexible graphite thermal cable transfers heat between server components using a rolled cylindrical design.

Coolant flows through the cryostat free space and tubular structure to reach operating temperature, then returns via the tube to minimize heating.

A stacked superconducting current limiter uses bar-shaped wires and connection blocks to enable series or parallel expansion without winding machinery.

A superconducting cable terminal integrates a refrigerant circulation path within its solid insulation bushing to cool the connecting unit.

Zr-doped REBCO tape enhances flux pinning via MOCVD deposition, achieving lift factors above 3.0 in 3 T fields at 30 K.

Dispersed Zr oxide particles pin magnetic flux to improve critical current density angular dependence.

Optimized SUS310s substrate composition facilitates electropolishing to reduce buffer layer thickness, thereby improving critical current density.

Eccentric cable connection positioning within an intermediate box aligns joints with coolant flow paths for stable thermal operation.

Reduced adhesive force at concentric layer boundaries lowers peel stress during cooling, preserving superconducting stability.

Segmented cooling stations maintain consistent pressure and re-cool coolant to extend cable length beyond single-loop limits.

An asymmetric lamination method bonds a single substrate to a superconducting wire, preventing current density loss and enabling easier coil winding.

Removing ferromagnetic substrates from laminated HTS wires eliminates magnetic interference, boosting AC electrical performance.

Distal capacitance cancels mutual coupling inductance, reducing induced currents and improving MRI field uniformity.