A transformative technology
The world faces urgent challenges, from climate change and energy security to rising demand for critical materials and advanced healthcare, driving the need for transformative solutions. High-temperature superconducting (HTS) technology delivers breakthroughs in efficiency and performance across multiple industries, accelerating the electric revolution.
HTS materials conduct electricity with virtually no power loss and exceptionally high current densities. When engineered into magnets, they generate strong, stable magnetic fields within compact, lightweight systems. Unlike conventional low-temperature superconductors, HTS operates at higher temperatures, eliminating complex liquid helium cooling and using simple, robust cryogenic systems that are over five times more energy efficient. This practicality unlocks new possibilities for applications including power distribution, science and medicine, energy, and transportation.
HTS benefits
Zero electrical resistance
- Conducts electricity with virtually no power loss in real world conditions
Higher current density
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Engineering current densities exceeding 1000 amps/mm2, 200x the value for copper
Higher magnetic fields
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Extremely strong and stable magnetic fields up to and beyond 30 Tesla
Higher temperature operation
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No requirement for liquid helium cooling infrastructure, greatly reducing operating costs
Compact, space-efficient applications
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High current density and simpler cooling enables compact, space efficient applications
Operation in high background fields
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Operation in background magnetic fields beyond 30 Tesla, much higher than LTS
Quench-safe
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Highly quench resistant, with minimum quench energy > 10,000x LTS equivalent
Minimal (almost none) share of rare earths
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Tiny amount of rare earths used, 99% less than in permanent magnets
HTS markets
Power distribution
HTS enables scalable, ultra-efficient, and compact power distribution for high-demand environments such as AI data centres, overcoming the limitations of conventional systems, which struggle with bulk, weight, heat generation at high currents, and efficiency losses in high-power settings.
Fusion energy
HTS magnets enable the next generation of energy-producing, magnetically confined fusion devices, such as tokamaks and stellarators, which will play a vital role in the transition to a clean and secure energy future.
Science and medicine
HTS magnet technology is set to revolutionise performance and accessibility in physics research, materials analysis and drug discovery. It enables a new generation of compact, lightweight, and cost-effective Ultra-High Field (UHF) devices, such as magnetic resonance imaging, particle therapy for cancer treatments, and particle accelerators.
Motors and generators
HTS magnets enable a new generation of powerful, compact, ultra-efficient electric motors and generators, unlocking transformative applications such as zero emissions electric flight and low-maintenance, high-efficiency wind turbines.
Propulsion
HTS technology unlocks powerful, efficient magnetic propulsion for land, air, sea, and space, including next-generation magnetic levitation (maglev) and magnetohydrodynamic (MHD) drive systems.
Manufacturing
HTS magnet systems could significantly enhance yield, efficiency and performance for core manufacturing industries, including mineral separation (finer, faster, and more selective extraction), hardware manufacturing and heavy industry.













