Superconducting materials: refer to materials with zero DC resistance and complete diamagnetism under certain conditions; certain conditions refer to appropriate temperature, magnetic field strength and current density.
characteristic:
1) Zero resistance: Superconductivity is characterized by zero resistance. To be precise, when the material is in the superconducting state, its DC resistance is zero, and it can transmit electrical energy without loss.
2) Completely diamagnetic (Meissner effect): Superconductors are not “ideal conductors” in the classic sense. Even if the external magnetic field is small, when the superconductor is cooled below the superconducting transition temperature, the magnetic field lines of the external magnetic field will be repelled from the superconductor, and the magnetic field lines cannot enter the superconductor, and the magnetic flux in the superconductor is zero.
Nb-Ti alloy is a low-temperature superconducting material of plastic solid solution alloy. It has excellent plasticity, mechanical strength and high current carrying capacity under a magnetic field.
Niobium-titanium superconducting materials can be made into various composite practical materials through conventional deformation processing and heat treatment processes. When it is used in a low and medium magnetic field of 2~8T, its raw material and manufacturing costs are much lower than other superconductors and other manufacturing technologies.
Nb-Ti alloy is a low-temperature superconducting material of plastic solid solution alloy. It has excellent plasticity, mechanical strength and high current carrying capacity under a magnetic field.
Niobium-titanium superconducting materials can be made into various composite practical materials through conventional deformation processing and heat treatment processes. When it is used in a low and medium magnetic field of 2~8T, its raw material and manufacturing costs are much lower than other superconductors and other manufacturing technologies.
Niobium-titanium superconducting materials are mainly used in: medical diagnosis of magnetic resonance imaging (MRI), nuclear magnetic resonance spectrometer (NMR), laboratory magnets, high-energy physics particle accelerators, power regulators, mine sweepers, magnetic separation beneficiaries, magnetic levitation trains and Superconducting magnet energy storage (SMES), etc.