Qu · MSME USE CASES

Where quantum methods actually fit an MSME.

Six problem shapes we see repeatedly — combinatorial, constrained, and currently planned by hand.

SIX PROBLEM SHAPES

Combinatorial, constrained, and planned by hand today.

Each card lists the signals we look for. If two or three match your operation, it is worth a conversation.

  • Production scheduling

    Manufacturing

    The problem

    Jobs compete for shared machines with sequence-dependent setups, due dates and shift constraints. Planners rebuild the schedule in a spreadsheet every morning.

    Our approach

    Model as a constrained assignment problem, solve with a hybrid annealer, and keep the planner in control of the final commit.

    Signals this fits you

    • More than ~20 jobs across shared machines
    • Setup time depends on job sequence
    • Replanning happens daily or per shift
  • Vehicle routing

    Logistics

    The problem

    Multi-depot deliveries with time windows, vehicle capacities and driver hours. Route plans are built from habit and local knowledge.

    Our approach

    Formulate as capacitated routing with time windows, solve hybrid, and compare distance and vehicle count against the historical plan.

    Signals this fits you

    • Multiple depots or 15+ stops per vehicle
    • Hard delivery time windows
    • Mixed fleet with different capacities
  • Inventory & supply-chain planning

    Distribution

    The problem

    Reorder points set per SKU by rule of thumb, with lead-time variability and supplier minimums pulling in opposite directions.

    Our approach

    Joint optimisation across SKUs and locations under budget and service-level constraints, with demand uncertainty modelled explicitly.

    Signals this fits you

    • Hundreds of SKUs across several locations
    • Supplier minimum order quantities
    • Working capital is the binding constraint
  • Cutting-stock & nesting

    Sheet metal, textiles, packaging

    The problem

    Parts nested onto sheet, coil or fabric by an operator. Every percentage point of waste is material cost straight off the margin.

    Our approach

    Reformulate nesting as a packing problem with rotation and grain constraints, solved with quantum-inspired methods against the current layout.

    Signals this fits you

    • Material is a major share of unit cost
    • Mixed part shapes per batch
    • Nesting is done manually or semi-manually
  • Materials & chemistry screening

    Chemicals, pharma, materials

    The problem

    Formulation and candidate screening runs on intuition plus slow classical simulation, so only a handful of options get tested.

    Our approach

    Variational simulation on small systems, used to triage a candidate list before classical methods and lab work take over.

    Signals this fits you

    • Small-molecule or small-system problems
    • Screening is a bottleneck before lab work
    • Classical simulation is already in use
  • Post-quantum crypto readiness

    IoT & connected products

    The problem

    Shipped devices use RSA or ECC with no inventory of where keys live, how they rotate, or whether firmware can be updated at all.

    Our approach

    Inventory cryptography across devices and firmware, rank by exposure and field lifetime, then test a PQC migration on one device class.

    Signals this fits you

    • Devices with 10+ year field life
    • No current crypto inventory
    • Customers starting to ask about PQC

HOW A PILOT STARTS

We model your problem, then try to beat your current method.

Historical data in, the incumbent plan as the baseline, and identical time budgets for every solver. You see the comparison table before anything touches production — including the cases where the classical solver wins.

NEXT STEP

Not sure which of the six is yours?

The readiness assessment takes two minutes and points at the most likely fit.