Superconductors/Hyperconductors TRIZ Cases

Outer stainless steel mesh supports inner multi-layer insulation against motion-induced forces, preventing delamination and maintaining thermal efficiency.

Parallel tape orientation within a rectangular cross-section reduces anisotropic effects, enabling higher current density in high-field magnets.

Metal-filled grooves in flat superconducting wire rods inhibit shielding current bands, reducing hysteresis losses while maintaining critical current density.

Embedment material fills through holes in superconductor wire bases to reinforce connection joints.

A metal powder coating layer reduces emissivity of the multi-walled pipe surface to limit external heat intrusion through radiation.

Segmented oxide bulks arranged in a nested configuration restrict magnetic flux movement to resolve non-uniformity caused by four-fold crystal symmetry.

Circumferential aluminum segments replace heavy copper to lower wire mass while maintaining thermal conductivity and preventing cracking during drawing.

Series-connected segmented filaments amplify voltage signals to overcome low signal-to-noise ratios and slow quench propagation.

An untextured nickel alloy substrate supports a biaxially textured buffer layer, reducing fabrication complexity while maintaining electrical performance.

A superconducting DC transmission system couples power collection systems in series to maintain constant current and reduce equipment complexity.

A superconducting cable integrates outgoing and returning coolant passages within a single insulated structure to maintain ultra-low temperatures.

Segmented core density prevents wire deformation during drawing, improving critical current density by up to 15%.

Multilayer HTS wire structure resolves crystalline alignment and mechanical stability trade-offs through segmented buffer and stabilizing matrix integration.

Chemical solution deposition forms untextured La2Zr2O7 barriers to enable biaxially textured buffer layers without expensive vacuum processes.

Larger inner armor wires balance torque while polymer layers seal gaps between wire layers to block pressurized gas infiltration.

Segmented superconducting filaments separated by a compliant material mitigate transverse stresses, preventing interface delamination in high-temperature tapes.

Ta-3W alloy stabilizers reinforce copper matrices to resolve mechanical strength and drawability contradictions while occupying minimal cross-section.

A superconducting wire bar design uses niobium intermediate layers to prevent brittle intermetallic formation during heat treatment.

A tunable notch filter uses MEMS capacitors to shift frequency notches rapidly.

Al+Al2O3 composite sheath stabilizes MgB2 wire, cutting weight by 2.5x while maintaining strength.

A superconducting cable relocates the reverse cooling path into surrounding thermal insulation to prevent heat exchange between flow paths.

Bronze sliding layers prevent metallic particle abrasion between superconducting cables and corrugated cryostats.

A superconducting cable suspension section absorbs axial forces generated by thermal contraction during cooling.

A persistent current switch uses longitudinal slits to segment superconducting wire, enabling controlled electrical transitions between states.

A laminated high temperature superconducting wire uses biaxially textured layers to boost electro-conductivity.

A three-phase coaxial superconducting power cable design optimizes wire distribution across radial layers to standardize critical currents and eliminate material waste.

Compliant silver layers sandwiched around superconducting films absorb thermal expansion mismatches, preventing delamination under transverse tensile stress.

Electroplated rhenium layers achieve 6.5 K critical temperature while preventing oxidation through protective encapsulation.

Vacuum induction melting and arc remelting enable defect-free nickel alloy metal film production with high cubic texture.

A bi-layered superconductive structure uses a thin template layer to enable thick YBCO growth on sapphire substrates, resolving lattice mismatch defects.

Nickel-cobalt-chromium reinforcement members bond to superconducting tape, reducing cross-sectional area while increasing tensile stress tolerance.

Dual rupture discs in a superconducting cable end termination release coolant pressure into a bursting space, protecting vacuum insulation from damage.

Overlapping saddle coil pairs fulfill the Hartmann-Hahn condition uniformly across the measurement volume to enhance cross-polarization efficiency.

Metallic sleeve reinforces Nb3Sn superconductor filaments during solid diffusion reaction.

Counter-current coolant flow in concentric passages intercepts ambient heat, reducing refrigeration units needed for long cable runs.

Extending the superconducting layer onto the substrate side surface increases bonding area, preventing peeling caused by thermal expansion differences.

Conductor layers redirect current around superconducting wire joints to prevent joining layer burnout and enhance mechanical strength.

A superconducting wire cover uses differential surface roughness to manage stress distribution across the substrate.

Cooling spray-dried oxide superconductor powder in low-humidity gas reduces carbon residue adhesion, increasing critical current value.

Liquid polysilazane deposits a silicon oxynitride layer that eliminates costly mechanical polishing while providing diffusion barrier properties.

Non-circular outer conductors and off-axis PCB traces enhance thermalization while maintaining predictable characteristic impedance.

Parallel superconductive cable ends joined by transverse contact elements within a cryostat housing filled with dielectric coolant.

A superconducting wire electrode joining structure uses a cover tape and buffering member to reduce contact resistance.

Triaxial superconducting cable reduces diameter and cost by using an aluminum tube as a neutral line, eliminating external copper wires.

Slit superconducting tape strips undergo silver coating and lamination to form a round wire, resolving winding difficulties inherent in square-section designs.

Spacers and dielectric liners isolate bit lines from capacitor contacts, preventing phosphoric acid damage during fabrication.

Flexible ribs in the terminal tubular part accommodate longitudinal movement during thermal cycles while preserving reliable electrical conductivity.