Superconductors/Hyperconductors TRIZ Cases

See how thermally conductive cladding on cryogenic flex cables improves thermalization to inter

See how segmented relay stations with refrigerant circulation maintain low-temperature environm

See how Brayton cycle subcooling with integrated heat exchange reduces main heat exchanger volu

See how spray-based evaporative cooling harnesses latent heat of vaporization to achieve twenty

See how subcooling liquid nitrogen in a Brayton cryocooler reduces heat exchanger volume by 75%

See how a venturi-based sub-cooler pump enables two-stage evaporative cooling of superconductin

See how partitioned thermal shields with flexible coupling enable unobstructed input/output lin

See how segmented planar copper bands replace circular bands in superconductor cooling containe

See how a resilient, heat-conducting connection element in cryostat assemblies suppresses eddy

See how a vacuum-insulated terminal with solid refrigeration replaces liquid nitrogen cooling i

See how a hybrid open-closed nitrogen cooling system reduces energy waste and cost by recoverin

See how sensor port segmentation and inert gas purging enable temperature sensor replacement wi

See how integrating the pressure system inside the vessel using annular space and evaporative h

See how segmented vacuum containers enable sensor replacement in superconducting cable connecti

See how thermally coupled cable brackets conduct heat from power cables to the enclosure exteri

See how bellows filled with cryogen gas enable controlled thermal contact between refrigerator

See how a master-loop cryogenic distribution system uses sensors and valves to reconfigure cryo

See how embedding the inertance tube within the container wall reduces vibration and system vol

See how an ISO container with onboard cryogenic refrigeration monitors temperature and pressure

An isolated sensor port enables temperature-sensor replacement without opening the main vacuum, using inert gas to block air and moisture.

See how segmented support elements with different strengths reduce suspension complexity and he

See how magnetocaloric material heat sinks prolong time to quench in cryogen-free superconducti

See how a thermomagnetic sheath uses the Ettingshausen effect to cool superconducting cores lik

See how gaseous helium cools the power supply below 60 K while liquid nitrogen cools current co

See how segmented thermal resistance sections in electric current leads reduce heat leak to coo

Connecting opposite cooling loops uses evaporation-driven bubble pumping to keep a superconducting rotor winding uniformly cooled while stationary.

A wall-integrated inertance tube uses a helical nested conduit to cut vibration, stabilize gas phase shift, and support lower cryocooler temperatures.

A closed refrigeration circuit cools a gaseous medium below 60K, replacing liquid nitrogen and cutting helium boil-off in cryostats.

By housing the pump and cooling unit inside a reservoir tank, this case enables compact, low-pressure superconductive cable cooling with lower maintenance.

A pump evacuates the cryostat cavity after cold-head failure, sharply reducing heat transfer and preserving superconducting operation longer.

Connecting opposing cooling loops lets cryogenic coolant circulate at standstill, enabling uniform rotor winding cooling without rotation.

Segmented cooling loops with a stop joint cut cryogenic flow distance, limiting pressure drop and temperature rise in long superconducting cables.

A combined access and refrigerator turret cuts cryogen vessel heat input, simplifies assembly, and avoids complex thin-wall welding.

Modular refrigeration at HTS cable joints splits and re-cools coolant to extend cable length while maintaining stable pressure and temperature.

A CeO2 buffer layer extended onto side faces improves acid resistance, prevents peeling, and stabilizes YBCO tape properties along its length.

A diverted boil-off gas path cools the refrigerator interface, intercepts conducted heat, and cuts cryogen loss during transport.

An ISO container with built-in cryogenic refrigeration re-condenses boiled-off helium to maintain superconducting magnets during transit.

A constricted cryoline limits heat flow from a heated superconducting switch, reducing cryogenic heat load while maintaining reliable switching.

Distributed cryocoolers and looped liquid nitrogen flow cool multiple cable legs without return lines, cutting heat leaks and pumping losses.

Controlled cooling-agent flow and pressure speed superconducting quenching while suppressing hot spots that shorten device life.

A thermal conduction switch links coil and current-lead cooling paths to shorten superconductor cooldown without larger cooling capacity or added space.

An electrically conductive shield inside the vacuum jacket uses eddy currents to suppress refrigerator-induced MRI field distortion.

Pre-irradiating HTS tapes at cryogenic temperature creates flux pinning sites while limiting grain boundary damage under neutron exposure.

A surrounding bit line trench wraps the source in a vertical DRAM transistor to cut contact resistance and support low-power, high-frequency operation.

Parallel-field REBCO tape stacks with copper contact and laminar springs improve current sharing, limit ohmic heating, and delay quenching.

Cryogenic supply and return channels keep HTS ESP cables superconducting, enabling compact downhole power transfer with near-zero losses.

A segmented oxide semiconductor column uses a cavity and non-continuous contact regions to raise threshold voltage and lower contact resistance.

A thermally coupled superconducting wire senses low-temperature component heating via critical-current transition, enabling circuit load balancing.

Controlling a-axis grain orientation cuts interlayer resistance at soldered joints while maintaining critical current density in long oxide superconducting wires.

Integrated manifolds and adjacent-coil passageways cut connections and eddy-current thermal load in superconducting generator cooling.

A controlled 4.1-11.9% a-axis grain ratio lowers superconducting wire interlayer resistance while preserving critical current density.

Plasma pretreatment or an adhesive layer strengthens substrate-buffer bonding in superconducting wire production and helps prevent peeling.

Controlled substrate roughness improves resin anchoring in superconducting wire, suppressing peeling and preserving critical current.

By moving parts of a preformed coil out of plane to expose its groove, HTS tapes can be inserted with less strain and lower quench risk.

A superconducting conductor uses a thermal insulation jacket and coolant annulus to carry higher current with lower losses and narrower right-of-way.

Wavy groove sidewalls in monocrystalline silicon replace IGZO and superlattice stacks, reducing interface defects while preserving 3D DRAM density.

Distributed superconducting elements along a thin tape improve radiation sensitivity and spatial resolution while tolerating high flux and scalable manufacture.

Nb-alloy diffusion barriers block Cu-filament interdiffusion while preserving wire strength and conductivity in high-field superconducting wires.

A flexible sleeve and spacing structure lets a cryogenic link expand and contract between fixed points without buckling, wear, or failure.

Cryogenic coolant channels keep HTS downhole cables superconducting, cutting voltage drop and heat loss during high-power drilling.

A blind-hole protective case seals superconducting joints and excess wire to limit dew condensation, stress, and joint deterioration.

A composite core and low-resistance conductor layer raise ampacity, cut line losses, and strengthen long-distance power transmission.

Concave and convex container walls hold superconducting filaments in place to prevent oxidation, lower resistance, and improve cooling.

Graded Cu/Nb local area ratios improve Sn diffusion and critical current density in 20-60 µm multifilament Nb3Sn wire.

Cryogen-cooled aluminum transmission cuts resistance and weight while avoiding quench damage through a return path and dielectric insulation.

Separated superconducting filaments with stabilizing layers cut AC loss while preserving critical current by limiting coupling and bypassing defects.

Modular terminal junctions let fault current limiter units be rearranged or replaced, cutting installation space and maintenance cost.

Radially flexible spacers in corrugated insulated tubes absorb tube movement, protect the insulating layer, and limit heat flow.

Radially flexible spacers span corrugation pitch to prevent insulation damage from tube movement while limiting heat flow in cryogenic cable lines.

Non-circular recesses with changing orientation guide and fix HTS cables in stellarator coils, improving alignment and reducing assembly errors.

Tank weight sensing replaces a heat-generating level meter, enabling compact superconducting fault current limiters with precise refrigerant monitoring.

Shaped plate recesses guide HTS cables through changing orientations, simplifying stellarator coil winding while improving alignment accuracy.

A layered inner cable section decouples superconductor alignment from coil winding, preserving critical current in non-planar stellarator coils.

Opposed coolant flow with an access pipe and external return lines extends spacing between cooling stations while maintaining cryogenic conditions.

A melanin-derived transducer combines light, heat, pressure, and radiation harvesting to deliver safer, reliable remote power.

An Nb alloy strip with Hf, Ta, Zr, or W joins brittle Nb3Sn to NbTi without Pb or Cd solder while preserving superconducting performance.

A multi-core superconducting cable uses stacked tape conductors in a resin insulation pipe to cut weight and complexity while carrying high current.

Flexible conductive links inside a sealed insulation junction absorb thermal and handling stress to keep superconducting cable tap connections stable.

A single insulated pipe and multicore laminated conductors cut superconducting cable weight while preserving high current for electric propulsion.

A hard mask surrounding the SNSPD detection area enables nanometer-level fiber alignment, improving coupling efficiency while limiting optical loss.

Acid-treated MgB2 powder-in-tube wire confines oxides to void borders, lowering oxygen contamination and improving critical current and bending.

Flexible conductive links in an insulated branch junction absorb thermal and mechanical cable movement while maintaining stable superconducting connections.

A two-channel liquefied-gas cooling layout cuts heat input in long superconducting power lines by shielding the carrier and removing evaporated gas.

Synchronized upper and lower confocal sensors track moving thin material to map 2D thickness variation and support real-time coating compensation.

Low-pressure PEALD with hydrogen-free cycles and intermittent ion bombardment improves TiN film uniformity, purity, and Tc for quantum circuits.

Running HTS coils above critical current with resistive turn links removes screening currents and stabilizes magnetic field homogeneity.

Controlled calcination keeps halogen below 2000 ppm in the REBa2Cu3Ox layer, preserving film volume and compositional balance.

Liquid-assisted film growth with mixed rare-earth elements and Ba2YNbO6 pinning centers boosts critical current while preserving crystalline quality.

Helically wound reinforced thermoplastic tapes give HTS cryostats near-zero axial expansion, cutting expansion joints and easing long-distance deployment.

Plasma emission feedback keeps reactive magnetron sputtering stable in the metal-oxide transition area, raising buffer-layer deposition rate for superconducting wire.

A spare 1-phase cable, switching network, and coolant rerouting keep a damaged superconducting phase isolated without shutting down the 3-phase line.