ZERO
Zero resistance. Full force.
Electrical resistance
0.000 Ω
An illustration of the idea: in a superconductor, resistance drops to zero.
Superconductivity 101
Why zero resistance matters
- 01
Ordinary wires lose energy
When current flows through a normal conductor, part of the energy escapes as heat.
- 02
Superconductors lose none
Under the right conditions, a superconductor carries current with zero electrical resistance.
- 03
High temperature makes it practical
High-temperature superconductors work at temperatures that are far easier to reach than those of conventional ones.
What we do
Research and development of high-temperature superconducting materials, on commission.
From the first idea to a working sample, we take on the parts of the work you need.
Material Design
Define the target properties and design the material to reach them.
Synthesis & Evaluation
Make samples and measure them against the design.
Prototype & Scale-up
Turn a working sample into something that can be made repeatedly.
Joint R&D
Work alongside your team on a shared research goal.
Applications
Where superconductivity matters
Fields that rely on strong magnetic fields or low-loss power.
Fusion Energy
Strong magnetic fields to confine plasma.
Quantum Computing
Superconducting circuits are one way to build qubits.
Medical (MRI)
Superconducting magnets provide the strong, stable field MRI needs.
Power Grid
Cables that carry current without resistive loss.
AI Data Centers
Low-loss power delivery for dense computing loads.
Mobility
Compact, powerful motors and magnetically levitated transport.
Space
Light magnets and power systems for spacecraft.
How we work
Four steps, one team
- 01
Consult
We listen to the goal and the constraints.
- 02
Design
We plan the material and the experiments.
- 03
Develop
We synthesize, measure and iterate.
- 04
Deliver
We hand over samples, data and know-how.
Careers
Shake the world.
We care about drive and ability, not résumés. Take real responsibility early, and work at the edge of the science.