Applied Superconductivity

Superconductivity is broadly recognised for its contribution to solving key research and societal challenges in Energy, Transport and Healthcare sectors. This theme includes research into the synthesis, characterisation and understanding of superconducting materials, as well as the design, modelling and testing of superconducting devices. Superconductivity is an enabling technology across numerous applications.

Superconductors that carry electricity with no resistance can be used to develop superefficient devices, such as power cables, electric machines and high speed transport systems such as MAGLEV. These devices will greatly support the reform of the energy system by diversifying supply and weaning the world away from fossil fuels, providing opportunities for secure, affordable and low-carbon energy.

Futuristic aeroplane design, clean travel made possible by applied superconductivity
MRI graphical illustration demonstrating Applied superconductivity within MRI scanner technology

Superconducting magnets are being developed for fusion to maintain the plasma, and in electrical generators and motors for energy and transport applications. Within the medical sector superconducting magnets have been fully commercialised in MRI scanner technology.

SuperMachine Module Array for HTS Machines

In this research theme the Superconducting Electric Futures Lab is focussing on the development of High Temperature Superconducting (HTS) Electrical Machines for energy and transport applications. Prof Mueller holds a Royal Academy of Engineering Chair in Emerging Technologies to develop SuperMachine, a modular electrical machine for use in generating and motoring applications where high power density and low mass is required.

SuperMachine Module Field Simulation
SuperMachine Module tested in LN2 Dewar

The SuperMachine project is developing lightweight and reliable low speed HTS generators for direct drive wind turbines at 15 MW and above, and both generators and motors for aerospace and ship systems.

PhD Students

Research areas

  • Multiphysics modelling and experimental testing
  • Superconducting electrical machines
  • Superconducting power generation, transmission and storage
  • Flux pumps and wireless energisation
  • Cryogenics and efficient cooling

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