Electronic Grade Diamond
High-purity CVD diamond for single-NV experiments, ion implantation, quantum photonics and device fabrication.
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Nova Crystal develops quantum-grade CVD diamond for NV-center research, including electronic-grade diamond, shallow NV centers, NV ensembles, NV arrays and isotopically enriched diamond.
Quantum experiments demand more than high-purity diamond. Nova develops materials with controlled purity, NV depth, defect density, isotope composition, crystal orientation and device geometry.
High-purity CVD diamond for single-NV experiments, ion implantation, quantum photonics and device fabrication.
Explore Electronic Grade →Depth-engineered near-surface NV centers for nanoscale sensing, surface science and nanoscale NMR.
Explore Shallow NV →Engineered NV concentrations for magnetometry, wide-field imaging, quantum sensing and maser research.
Explore NV Ensemble →Patterned and localized NV structures for NV–NV interaction, super-resolution imaging and quantum-device studies.
Explore NV Engineering →Isotopically engineered diamond and controlled nitrogen incorporation for advanced quantum experiments.
Explore Isotope Engineering →Diamond platforms developed around target depth, orientation, isotope composition, pattern and geometry.
Explore Custom Quantum Diamond →Integrated control from crystal growth and isotope engineering to implantation, NV formation and characterization.
A continuous material-engineering workflow designed around quantum experiments rather than standard catalog specifications.
High-purity, nitrogen-controlled single-crystal diamond growth.
Natural-abundance or isotopically engineered carbon and nitrogen systems.
Orientation control, precision cutting and ultra-fine surface polishing.
Controlled species, energy, dose, depth and spatial pattern.
Post-implantation processing and annealing for engineered NV centers.
Material and NV characterization according to project requirements.
Research-ready starting points for single-NV, shallow-NV, ensemble and isotope-engineered experiments — with parameters customized around the application.
From high-purity substrates to deliberately engineered defect environments, each platform can be adapted in size, orientation, depth, density and isotope composition.
Low-nitrogen single-crystal diamond for single-NV experiments, implantation substrates, photonics and quantum-device fabrication.

Depth-engineered NV centers for nanoscale sensing, nanoscale NMR and surface-sensitive quantum experiments.

Engineered NV ensembles for wide-field magnetic imaging, quantum sensing, spin-ensemble studies and maser research.

¹²C enrichment suppresses the ¹³C nuclear-spin bath for improved NV coherence, with controlled ¹⁴N or ¹⁵N doping for isotope-defined quantum structures.

Quantum experiments often require control beyond crystal size and purity. Nova works with researchers to engineer diamond around the parameters that matter to their experiments, including surface chemistry and termination.
Choose material starting from your research objective, not only from a specification sheet.
NV diamond for magnetic, electric-field, temperature and related quantum sensing.
Shallow NV centers for near-surface nuclear-spin detection and nanoscale spectroscopy.
NV ensembles and engineered NV layers for spatially resolved magnetic imaging.
High-purity and isotopically engineered diamond for single NV, quantum registers and NV–NV interaction.
NV ensemble and engineered active layers for spatially resolved magnetic imaging and quantum sensing.
Controlled high-density NV materials for diamond maser and spin-ensemble experiments.
Start with your experimental goal. We can help translate it into the right material specification.
Nova develops diamond materials for NV-center physics, quantum sensing, magnetic imaging, quantum information, photonics and emerging quantum technologies.
Explore Research & Publications →Practical material guidance for NV-center experiments, quantum sensing, isotope engineering and defect control.
Surface condition, implantation, charge stability and coherence can all affect shallow-NV performance.
Read Article →How crystal orientation can influence NV alignment and experimental architecture.
Read Article →From single NV centers to dense ensembles: matching defect density to the experiment.
Read Article →Understanding carbon-isotope engineering and its role in spin coherence and quantum devices.
Read Article →Not every quantum experiment starts with a standard diamond specification. Tell us what you are trying to achieve. We can help translate your experimental requirements into a suitable diamond material and NV configuration.
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