
Home to QuTech and the Hanson Lab, which performed the first loophole-free Bell test using NV centers.
United Kingdom · Company
A De Beers Group company and world leader in synthetic diamond manufacturing.
The Lukin Group at Harvard is a pioneer in controlling NV centers for quantum information and sensing.
Switzerland · Startup
Produces scanning NV magnetometers (ProteusQ) for materials science and semiconductor analysis.
Australia · Startup
Develops room-temperature quantum accelerators using nitrogen-vacancy centers in synthetic diamond.
Germany · Startup
Uses quantum defects in diamond to hyperpolarize agents for enhanced MRI imaging.
United States · Startup
Biotech company using quantum sensing for diagnostics.
Japan · Company
Produces high-quality synthetic diamond crystals tailored for quantum applications.
Prime contractor for the TeQuantS project and a key partner in ESA's quantum satellite initiatives.
Diamond NV (nitrogen-vacancy) centers are defects in the diamond crystal lattice where a nitrogen atom replaces a carbon atom and is adjacent to a vacancy (missing carbon atom), creating a quantum system that acts as a qubit. Uniquely, these centers can maintain quantum coherence (preserve quantum states) at room temperature, unlike most quantum systems that require extreme cooling, making them exceptional candidates for quantum sensing (detecting magnetic fields, electric fields, temperature, and pressure with extreme precision) and potentially for quantum memory (storing quantum information) and smaller-scale quantum processors, enabling quantum technologies that can operate in practical environments without complex cooling systems.
This innovation addresses the challenge of operating quantum systems at practical temperatures, where most quantum systems require extreme cooling. By operating at room temperature, NV centers enable more practical applications. Companies and research institutions are developing these technologies for sensing and computing applications.
The technology is particularly significant for quantum sensing applications, where NV centers can provide extreme precision. As the technology improves, it could enable new sensing capabilities and potentially small-scale quantum computing. However, scaling to larger systems, ensuring high fidelity, and managing diamond quality remain challenges. The technology represents an important direction for practical quantum technologies, but requires continued development to achieve larger scale. Success could enable practical quantum sensing and potentially small-scale quantum computing, but the technology must overcome scaling challenges. NV centers are already being used in commercial quantum sensing applications.