top of page
Our novel technology is optimised for scalability and tunability
Highly tunable optically addressable qubits
Qubits are optically addressable spins in carbene molecules embedded in a chemically tunable molecular crystal matrix
Rapid iterative fabrication in quantum thin films
Modern organic chemistry enables rapid design and fabrication cycles, embedding qubits in <20nm quantum thin films
Scalability through silicon photonics
Compatibility with existing silicon-based wafer technology enables rapid and cost effective scalability
Highly tunable optically addressable qubits
Our photoactive carbene molecules are embedded in an inert host matrix forming a <20nm molecular crystal thin film
The optically addressable electron spin enables photon-based entanglement, while deterministic nuclear spins serve as qubits
The physical properties are NV-center-like, with a triplet ground state with long relaxation and coherence times
Yet, we achieve an unprecedented degree of tunability through our organic chemistry based design and fabrication approach
Inert host molecule
Photoactive carbene carrying optically addressable spin qubit
Rapid iterative fabrication in quantum thin films
Compatibility with on-chip waveguides unlocks scalable entanglement between qubits via photonic coupling
Targeted design of qubit / matrix molecule combinations and dopant levels allow tunable control over emitted photon wavelengths (400-700nm) and number of nuclear spin qubits
Scalability through silicon photonics
NVision’s quantum computing platform PIQ|C> is natively designed to integrate with one of the world’s most successful technologies and ecosystems:
Silicon-based wafer technology
Our highly tunable quantum thin films integrate straightforwardly with CMOS
The spin-photon coupling of our qubits enables highly entangled states via optical waveguides
What sets us apart?
Unlike most other technologies, our qubits achieve high quantum yield while also allowing high degrees of tunability
Individually tuned matrix and dopants yield deterministic nuclear-spin registers: an atomic-precision environmen
Our qubits’ photoemission matching SiN/Si waveguides unlocks scalable on-chip quantum operations
Fast organic chemistry synthesis and electronic/magnetic property prediction shortens iteration cycles to weeks
Compatibility with silicon technology (e. g. CMOS compatible thin-film deposition) unlocks a large, mature ecosystem
bottom of page