Quantum-O · Enterprise

The operating system forthe quantum-era enterprise.

A disciplined path from board-level readiness through hybrid benchmarking to production use-cases — running against the Quantum-O v1.0 monolithic chipset.

Quantum-O v1.0 dilution-refrigerator chandelier
Three pillars

Software. Infrastructure. Capital.

One coherent enterprise offering, each pillar priced and delivered separately.

Pillar 01

Quantum-O Platform

Board-level readiness scoring, use-case prioritisation, hybrid benchmarking against classical baselines, and ROI modelling — delivered as a subscription.

Pillar 02

Quantum Centres

Regional facilities hosting the Quantum-O v1.0 chipset with the required cryogenic infrastructure. Enterprises access compute via managed workloads; centres are project-financed.

Pillar 03

Investor Participation

Direct equity, SPV, or project-based capital into either the software platform or the centre network. See the Invest portal for suitability.

Platform modules

Not qubits. Enterprise outcomes.

Readiness Scoring

Assess a business unit's technical, data, and operating fit for near-term quantum advantage.

Use-Case Prioritisation

Rank workloads by expected uplift × feasibility × strategic value against classical baselines.

Hybrid Benchmarking

Reproducible A/B against QuantumO cores and classical HPC, with fidelity, wall-clock, and cost tracked.

ROI Analysis Engine

Blend hardware cost, licence, and staff time into a per-workload margin model.

Platform Analytics

Fleet-wide telemetry, gate-count budgets, and success rates by circuit family.

Roadmap Builder

Milestones tied to Quantum-O v1.0 → v2.0 chipset shipment windows.

Quantum Centres

Managed access to the Quantum-O v1.0 die.

Where the chipset described in the Chipset portal is hosted, cooled, and delivered as compute-as-a-service.

Hardware Hosting

Sub-Kelvin dilution refrigerators, optical fibre arrays, cryo-electronics racks.

Enterprise Access

Scheduled tenant windows, SLA-backed circuit runs, encrypted job queues.

Managed Workloads

Turnkey pipelines for optimisation, chemistry, and ML kernels.

Use-case journeys

From workload to measurable outcome.

Concrete pipelines an enterprise runs against a Quantum Centre — not vague promises.

Chemistry

Molecular ground-state energy for a candidate catalyst.

Hybrid pipeline

VQE ansatz on Q-O cores, classical optimiser on HPC, joint convergence in the runtime.

Measured outcome

Energy error vs. classical DFT baseline, tracked per iteration.

Logistics

Vehicle routing with time-window constraints across a national fleet.

Hybrid pipeline

QAOA on Q-O cores for a partitioned sub-problem; classical solver stitches the global tour.

Measured outcome

Cost reduction vs. incumbent solver, wall-clock, and cost-per-solve.

ML kernels

Kernel evaluation for a small-sample classification task.

Hybrid pipeline

Quantum feature map on Q-O cores; classical SVM on the resulting kernel matrix.

Measured outcome

Accuracy uplift vs. classical kernel, tracked at fixed sample budget.

Integration

How workloads actually reach the Centre.

01 · Auth

SSO / SAML against the enterprise IdP. No shared credentials.

02 · Queue

Encrypted job queue with tenant isolation and SLA-backed windows.

03 · SDK

Quantum SDK job submission from Python or a hosted notebook.

04 · Result

Signed result envelope with counts, fidelity, and wall-clock.