1 · Frame the decision
What are you choosing between, and what does a wrong choice cost? We start from the decision, not the hardware.
How it works
Proprietary methods decide which part of your problem needs a quantum processor and which does not. Here is the workflow in plain language; the methods themselves stay ours.
The workflow
What are you choosing between, and what does a wrong choice cost? We start from the decision, not the hardware.
We turn the decision into a model and screen it: classical, contested or quantum. If classical wins, we say so and stop. The free check runs this screen in about a second.
CPUs give exact references wherever they can be reached, GPUs carry training and ranking, and the quantum processor runs only the part that is hard classically.
You receive the answer, the baseline it was checked against, its status (hardware, computation or projection) and its conditions. The protocol is frozen before the run.
The compute stack
The heavy computation runs inside your network or in UAE-resident infrastructure. Only abstracted circuit descriptions reach hardware providers: no raw data, no labels, no business context.

What makes the results hold
Our circuits keep the same depth at any simulated time and any qubit count, so results survive on today's hardware. 126 qubits ran in a single run. Not error-free: designed to hold up under real noise.
Our readout extracts a processor's own clock to three parts in a hundred thousand and pinpoints which qubit is losing information, so you know which part of the machine is failing your problem.
By reading frequencies instead of averaging totals, we obtain tighter energies than the standard estimator on the same chip and in the same run.


Decide before you build.
We tell you which option wins, and whether quantum is the reason.