Superconducting materials can be used to create magnetic fields in order to maintain the plasma of controlled nuclear fusion reactions. At the same time, superconducting technology can also be used to prepare superconducting magnets, which helps to better control nuclear fusion reactions.

Both superconducting materials and semiconductor materials have special electronic properties, which can be further studied and applied in the preparation and performance optimization of photovoltaic monocrystalline silicon. Superconducting and semiconductor/photovoltaic monocrystalline silicon are important in the field of materials science and energy.

Superconducting induction heating uses the characteristics of superconducting materials to generate alternating electromagnetic fields on their surface, causing the magnetic material in the material to produce eddy currents, resulting in hysteresis loss, converting electrical energy into heat energy. With superconducting materials, efficient and energy efficient heating processes can be achieved.

Superconducting coils in superconducting magnets are capable of generating powerful magnetic fields at extremely low temperatures, which can be used to excite and detect signals from atomic nuclei in a sample, enabling high-resolution NMR imaging.

The excellent electrical conductivity of superconducting materials makes them ideal for constructing powerful magnetic field systems. These magnetic systems can effectively accelerate, guide, and focus heavy ion beams.

Superconducting coils can generate stronger and more precise magnetic fields than conventional electromagnets, while using less energy and being smaller. This makes proton therapy devices more compact, efficient, and able to more precisely direct the proton beam to the tumor site, improving treatment effectiveness and reducing damage to surrounding healthy tissue.

Using the strong repulsion between the electromagnetic field formed by the superconducting electromagnet on board and the electromagnetic field formed by the coil on the track, the vehicle is made to float.

High temperature superconducting cable is an important application of superconducting material technology. Compared with traditional conductors, HTS cables have the advantages of large transmission capacity, low energy consumption and small size. It not only greatly improves the efficiency of power transmission, but also provides new technical support for the construction of smart grid.

Superconducting material is the core component of superconducting motor. By taking advantage of the zero resistance properties of superconductors, superconducting motors can achieve higher power density and efficiency. Compared to traditional copper wires, superconducting coils not only reduce size and weight, but also significantly reduce energy consumption. This innovative design has brought revolutionary changes to power, transportation and other fields, and promoted the progress of energy saving and emission reduction technologies.

Superconducting materials are widely used in magnets in large high-energy particle colliders to generate powerful magnetic fields to guide particle trajectories. Superconductors have zero resistance and perfect electrical conductivity and can operate at lower temperatures. This property allows the collider to operate more efficiently.

Superconducting materials generate strong magnetic fields to excite and detect nuclear spins in the sample. The zero resistance and high conductivity of superconductors can generate stable magnetic fields, improve the sensitivity and resolution of spectrometers, and thus more accurately analyze the structure and properties of samples.

The zero resistance and high conductivity of superconducting materials allow qubits to interact efficiently with each other and maintain stable quantum information. This relationship has driven the development and research of quantum computer technology.