Spaced HTS flexible cables with a thermal conductor cut heat leakage between cryogenic zones while preserving dense, high-speed signal transmission.
Comb-like connector wedges join multiple HTSL strips at once, cutting handling damage, contact resistance, and busbar installation effort.
Continuous SiC fibers reinforce brittle HTS crystals during sintering, limiting oxidation, preventing cracks, and enabling shaped components.
A reinforced precursor wire with a soft stabilizing layer and high-strength structure resists electromagnetic stress while limiting breakage and deformation.
Coaxial upper and lower confocal sensors track moving thin material to map thickness in real time for tighter uniformity control.
A conductive cushioning layer and tension-controlled helical wrapping protect brittle superconducting tape and preserve critical current.
Grooved substrates split superconducting coatings into separate filaments, cutting AC losses while supporting scalable wire and cable manufacturing.
A braided, stabilizer-impregnated HTS lead accommodates thermal shrinkage and bending while protecting tapes from cracks and current loss.
A bimodal RE-Ba-Cu-O grain connection layer uses two-step sintering to lower joint resistance while preserving mechanical strength in superconducting coils.
An expansion chamber redirects metal vapor for fast, uniform coating of heat-sensitive superconducting tape with dense, low-porosity layers.
Grooved multi-filament coated conductors cut AC loss while preserving critical current and avoiding narrow-filament stacking errors.
Depositing modifying material on ELR film a- or b-plane surfaces raises transition temperature and current capacity while reducing cooling needs.
Misaligned superconducting and conductive tapes create a wide low-resistance current path that bypasses defects and preserves joint mechanics.
A superconducting wire former boosts Je in small-diameter round REBCO wires and enables earlier quench detection to protect magnets.
A heat transfer member doubles as a secondary coil to extract quench energy, protect the superconducting coil, and avoid added space.
Controlled nickel-alloy grain size helps oxide superconductor wire resist tensile-stress cracking while maintaining superconducting characteristics.
Trace Ca, Sr, Ba, or rare earth additions let copper stabilizers recover RRR after wire deformation while keeping hardness and high-field stability.
Embedded conductors in a fuel cell bipolar plate create an electromagnetic field to speed reactants toward the electrode for faster power response.
Segmented cryogenic jackets with a junction unit and tap-off module stabilize pressure and temperature in long superconducting cable runs.
Liquid-assisted processing forms Y-RE-BCO films with Ba2YNbO6 pinning centers, preserving critical current at high growth rates.
A thermal-storage ramp lead limits heat leak and temperature rise during superconducting magnet energization, helping prevent quench in low-cryogen machines.
A thin Nb diffusion barrier inside a copper sheath blocks Sn contamination while cold drawing and heat treatment cut cost and preserve current capacity.