What changed is not the hardware roadmap. It is that you can rent the compute and run the method on your own data this quarter.
Why now
Cloud QPUs are rentable by the minute, and quantum-inspired solvers already run on ordinary servers. Testing the approach costs weeks, not capital.
Why MSMEs
Mid-sized manufacturers, logistics firms and processors sit on exactly the combinatorial problems these methods target — and most plan them in spreadsheets today.
How it works
Hybrid quantum-classical pipelines, quantum-inspired algorithms, and cloud QPU access. A classical solver always stays in the loop as the fallback.
CLAIMS DISCIPLINE
What we will and will not claim
Quantum marketing has a credibility problem. Here is our side of the line, in writing.
What we will say
Quantum-inspired solvers run on classical hardware today and often beat spreadsheet planning.
Hybrid quantum-classical pipelines are usable now through cloud QPUs rented by the minute.
Every pilot is benchmarked against your current method before anything goes live.
What we will not say
We will not promise a general speedup over your existing solver.
We will not sell a QPU, or tell you that you need one.
If the classical method wins the benchmark, we ship the classical method.
CAPABILITIES
Four areas, ranked by how ready they are.
Optimisation is production-capable today. Quantum ML is marked exploratory because that is what it is.
Optimization
Production scheduling, vehicle routing, inventory and supply-chain planning, cutting-stock and nesting — reformulated for quantum and quantum-inspired solvers.
What you get
Your problem written as a QUBO or Ising model
Benchmark against the incumbent planner
Hybrid solver with a classical fallback
Simulation
Materials and chemistry exploration for small chemical, pharma and materials firms, run on simulators and small QPUs at problem sizes they can actually handle.
What you get
Candidate screening workflow you can repeat
Honest statement of current size limits
Classical DFT comparison where relevant
Quantum ML (exploratory)
Hybrid quantum-classical models for anomaly detection and forecasting. Marked exploratory on purpose — these are research pilots, not production commitments.
What you get
Side-by-side result against a classical baseline
Clear read on whether to continue
Code and notebooks handed over either way
Post-Quantum Security readiness
Inventory the cryptography in your devices and IoT fleets, then plan the migration to post-quantum algorithms before it becomes urgent.
What you get
Crypto inventory across devices and firmware
Risk-ranked migration plan with timelines
PQC test on one representative device class
ENGAGEMENT MODEL
Readiness → PoC → hybrid pilot → scale.
Four gates. Each one can end the engagement, and that is the point.
011–2 weeks
Readiness Assessment
We map your planning problems, data and tooling, then say which — if any — are worth a quantum pilot. Output is a short written assessment.
024–6 weeks
Proof of Concept
One problem, modelled and run on simulators and cloud QPUs. Benchmarked against your current method on your historical data.
038–12 weeks
Hybrid Pilot
The solver goes into production behind your planning workflow, with the classical path live as fallback and a measured comparison running.
04Ongoing
Scale
Additional problems, more sites, and a maintained model library. Reviewed quarterly as hardware and solvers improve.
FAQ
The five questions we always get.
Do we need to buy quantum hardware?
No. Everything runs on simulators and cloud-accessible QPUs billed by usage. Most of the value in early engagements comes from quantum-inspired solvers that run on classical servers you already have.
Is this actually faster than our current planner?
Sometimes, for some problem shapes, and only a benchmark can tell. That is why every engagement starts by measuring your current method on your own data. If it wins, we say so and the project stops there.
What does "quantum-inspired" mean?
Classical algorithms derived from quantum formulations — simulated annealing variants, tensor-network methods, digital annealers. They run on ordinary hardware and are often the practical answer today.
How much data do we need?
For optimisation, historical plans and constraints matter more than volume: a few months of orders, routes or schedules is usually enough to build a representative benchmark.
Why should an MSME care about post-quantum cryptography?
Because device fleets live for ten to fifteen years. Firmware shipping today with RSA or ECC keys will still be in the field when migration deadlines arrive. The inventory is cheap to do now and expensive to do late.
NEXT STEP
Find out whether you are ready, in two minutes.
Eight questions, a readiness band, and a next step that matches it.