Packaged universal meshes: 8×8, 12×12, 24×24.
View ↓64-channel precision current drive & readback.
View ↓MZIC Studio control suite and the Noor SDK.
View ↓Damage-resilient compilation, trained to your chip.
View ↓Quantum, neuromorphic, non-Hermitian, teaching.
View ↓Remote access, custom meshes, integration.
View ↓Universal Clements meshes on silicon-on-insulator: any linear-optical transformation, programmed in software. Delivered packaged — fiber-coupled, thermally stabilized — with a trained digital twin.
The entry point — teaching labs and protocol development.
The flagship — proven across published quantum and non-Hermitian experiments.
Twice the modes, the same stack. Early-access program open.
| Specification | Noor‑Q 8 | Noor‑Q 12 | Noor‑Q 24 |
|---|---|---|---|
| Mesh | 8×8 · 28 MZIs | 12×12 · 66 MZIs | 24×24 · 276 MZIs |
| Platform | Silicon-on-insulator · telecom C-band · thermo-optic phase shifters | ||
| Packaging | Fiber-array coupled · TEC-stabilized · deep-trench thermal isolation · Koi-ready | ||
| Delivered with | Trained Noor Twin · characterization report · MZIC Studio · Noor SDK | ||
| Status | Shipping | Shipping | Early access |
Dissipative option: engineered loss taps and ancilla channels for native non-unitary programming — on request for any Noor‑Q.
64 channels of precision current with per-channel voltage readback — current, voltage, resistance, and power for every heater on the chip. One controller, eight hot-pluggable cards, a plain-text USB protocol, open firmware and hardware.
| Channels | 64 (8 × 8), hot-pluggable |
|---|---|
| Current | 0–6 mA · 16-bit setting |
| Readback | 24-bit ΔΣ · V, I, R, P per channel |
| Linearity | ±0.32 µA worst-case (measured) |
| Full scan | < 1 s, all 64 channels |
Full-mesh control: interactive grid, automated resistance and phase calibration, unitary decomposition, and sequenced experiments with synchronized optical readout.
Included with every Noor‑Q →Python toolkit for programmatic control and simulation — the same code our published experiments run on.
A physics-informed model of your specific chip. Compilation becomes a global inverse problem solved through the twin: published fidelity above 0.97 with five phase shifters failed, graceful degradation far beyond.
How it works →Hardware ages. Send us your mesh telemetry, get back a re-trained twin and updated compilation tables — fidelity restored in software.
Ask about coverage →Protocols, notebooks, and expected-result datasets — your first figure in days, not months.
Program a hosted Noor‑Q from your desk before committing to hardware.
Non-standard topologies and engineered loss, delivered through established foundry runs.
Sources to detectors: we help you build the full experiment around the processor.
Tell us your application — we'll propose the configuration.
Request a configuration