Our HTS technology
TE Magnetics is a world leader in high temperature superconducting technology. With exceptional facilities and over ten years’ experience, we’ve invested more than $60 million to create ultra-high field HTS technology that is adaptable, scalable, robust, quench-safe, and cost-effective.
Innovation is at the core of what we do. Our latest breakthrough, Ultra Compact Insulation (UCI), enables the generation of the highest magnetic fields, faster than ever before. Learn more below.
Designed and built to be:
Adaptable
Our suite of patented technologies allows us to customise the design of our magnets to meet specific requirements, such as field strength, field quality and ramping speed, including for applications with rapid or continual changes in magnetic field (e.g. AC applications).
Scalable
Our patented modular ‘pancake’ design allows for cost-effective manufacturing, assembly, testing, and maintenance of magnets of all sizes, from small prototypes to large commercial and industrial applications.
Robust
Our ultra-resilient magnet design includes continuous mechanical support for the current-carrying REBCO layers, exceptional tolerance to tape variability, and strong and reliable connections between each pancake.
Quench-safe
Our magnets are highly resistant to quenching. Even if quench does occur, in the event of a power or cooling failure for example, we ensure that the energy is dissipated uniformly, leaving the magnet undamaged.
Cost-effective / efficient
Our expertise in tape characterisation and magnet system alignment allows us to optimise field angles for maximum tape efficiency, reducing material usage and minimising costs.

Patented technology
Our technology is protected by over 200 granted patents including:
- Magnet structure and manufacture
- Tape testing, characterisation and joining
- Magnet operation
- Quench management
- Quench detection
- Partial insulation and current sharing
REBCO – the game changing superconductor
Our magnets are wound in parallel using HTS tapes, which are multilayered conductors typically 12mm wide and less than 0.1 mm thick. These tapes are composed primarily of strong and conductive metals, with a crucial thin internal coating of REBCO (Rare Earth Barium Copper Oxide) superconducting material.
REBCO is produced through advanced thin-film deposition techniques, such as MOCVD (metal-organic chemical vapor deposition) or PLD (pulsed laser deposition), using only a very small amount of rare earth elements, over 99% less than is used in conventional permanent magnets.



Ultra Compact Insulation – a breakthrough in HTS technology
Our latest HTS innovation, Ultra Compact Insulation (UCI), enables the generation of the highest magnetic fields, faster than ever before.
Traditionally, engineers faced a trade-off: fast-ramping magnets required insulation that compromised current density, thermal stability, and mechanical strength. UCI changes that. Its unique combination of properties – ultra-thin, electrically insulating, thermally conductive, and exceptionally stiff – eliminates the need for bulky insulating materials and enables compact, high-performance magnets that ramp quickly without sacrificing reliability or robustness.
In testing, our six-coil test magnet was cooled to 20 Kelvin and ramped to 15 Tesla at over 5 Tesla per minute, more than five times the LTS industry standard. It was ramped over 100 times, including deliberate quenches from peak field, with no performance loss.
By supporting higher current densities, UCI reduces the amount of superconducting tape needed to reach a given field strength, which improves cost-efficiency. It enables capabilities once thought incompatible – high magnetic fields, compact footprints, and precise, rapid field control – unlocking new possibilities across a wide range of applications, from motors and generators to particle accelerators, analytical instruments, and advanced manufacturing. Its low stray field and compact footprint make it ideal for space-constrained, highly integrated systems.
We’re working with key partners to deploy this transformative technology across industries, from propulsion to scientific research, enabling new levels of performance, efficiency, and sustainability.