Superconductors/Hyperconductors TRIZ Cases
- Superconductive Cable AC Loss Reduction via Wire Rod Orientation
A superconductive cable design uses oriented wire rods to reduce alternating current loss in power transmission systems.
- Nb3Sn Strand Heat Treatment via Cu Diffusion Plateau
A low-temperature copper diffusion plateau homogenizes the tin mixture in niobium-tin superconducting strands before the main reaction stage.
- Superconducting Wire With Detachable Coating Layers
A superconducting wire design uses coating layers with varying adhesion strengths to detach from the substrate under thermal stress.
- Superconducting Coil Parallel Strands AC Loss Reduction
Segmented parallel strands with magnetic shielding suppress AC losses and distribute electromagnetic forces to prevent burn-out.
- Superconducting Wire Copper Layer Lamination
Copper layer deposition on superconducting tape simplifies metal lamination and prevents oxidation.
- Nb3Sn Superconducting Wire Grain Refinement
Internal oxidation refines Nb3Sn grain size to 5-90 nm, boosting critical current density and flux pinning force in high-field magnets.
- Superconducting Cable Three-Layer Insulation Dielectric Loss
A three-layered insulating structure in superconducting cables suppresses dielectric loss while maintaining high withstand voltage performance.
- Graded Nickel Alloy Substrate for Superconducting Wire
Segmented nickel layers with varying concentrations reduce hysteresis loss while maintaining biaxial crystal orientation.