Universal Scale
Photonic Integrated Circuits (PICs) have become foundational to modern data infrastructure, enabling light-speed data transmission on a single chip.
Our architecture interfaces natively with this photonic ecosystem through photon-emitting organic molecules with built-in photonic interfaces, enabling scalable quantum functionality directly within photonic circuitry.
We call this architecture PIQC - pronounced "pixie": Photonic Integrated Quantum Circuits.
The Computational Unit Cell
At the core of each computational unit cell is NVision’s photo-active carbene molecule embedded within a stable crystal lattice.
Each molecule combines a long-lived nuclear spin serving as quantum memory, and an optically active electron spin acting as the photonic interface.
Together, they enable long coherence, high clock speeds, ultra-high gate fidelity, and indistinguishable single-photon emission across chemically identical molecules.
Quantum Logic and Entanglement
When two computational unit cells interact, they form a quantum logic gate.
Resonant laser excitation drives coherent photon emission, while low-loss waveguides and high-speed switches route photons across the circuit with preserved quantum coherence.
Detection of a single photon creates heralded entanglement between unit cells, enabling high-fidelity quantum logic operations.