Install the client, add five lines to your control loop, and leave it running. Your application does not change.
Explore where it applies.Free 90-day evaluation. No card.
TrueLoop gives supported wave systems the control layer required for commercial scale. One parallel acquisition per cycle returns the next complete multichannel configuration inside real-time deadlines and measurement budgets.
Signals restored at every gate, manufacturing spread was absorbed, and nobody operating a computer had to think about drift. TrueLoop is the stability contract for component-observable wave systems, meaning those that report a response per channel: one parallel acquisition per cycle, with terms published in the envelope and checked before you spend a measurement.
Define the classThe contract's value is territory: operating at channel counts and deadlines where tested alternatives produce nothing. The impact arrives in stages. First uptime, then manufacturing economics, then designs that were previously too difficult to operate.
Duty cycle becomes revenue: hardware holds spec continuously instead of living in calibration windows.
02Power-on to spec in a handful of reads makes spread-tolerant parts compatible with product economics.
03When holding n channels stops being the limit, architectures appear that nobody drew before.
Use TrueLoop directly with wave hardware, or use SimWrap with your simulator, treated as a black box. The runtime and the client interface stay the same.
Production control for supported wave hardware. A current parallel measurement produces the next complete configuration inside a fixed operating budget.
The TrueLoop runtime applied to your simulator, treated as a black box. Give it a target, configuration, and simulator response. It returns the next configuration to evaluate.
You install a Python client and add five lines to your control loop. TrueLoop holds every channel on target while your application runs. Nothing else changes.
opt = SWCOptimizer(key, n=len(x0), mode="regulation", target=target)
x = opt.start(x0)
for _ in range(budget):
x = opt.step(measure(x), target=target)
opt.end()measure(x) is your existing readout. Nothing above or below this loop changes.
It sets the targets and does the work, exactly as it does now. TrueLoop receives a target and a measurement, and returns settings.
Start a session, send the measurement, apply what comes back. The same three calls cover regulation, calibration, tracking and response matching.
Tested with TrueLoop holding 1,024 channels while an optimizer actively drove 1,024 neighbouring channels. Error rose 5 percent.
simulatedUsable means the verified error is inside the published threshold. Flat from 16 to 65,536 channels. Live-confirmed to 4,096.
simulatedCommercial quantum hardware in 12 acquisitions.
measuredAt one read per update, with the hardware drifting between reads, every tested alternative produced zero usable configurations. TrueLoop produced them at every scale tested.
simulatedState the desired vector response, submit the current measured response, and apply the complete configuration returned by the runtime. The same interface supports setpoint control, calibration, tracking, inverse problems, and compatible nonlinear least-squares work.
The claim is deliberately practical: a usable result inside the deadline. Single-score combinatorial objectives use a different information interface and are declined before evaluation.
Your application sets the target. Your hardware performs the work. TrueLoop keeps control fast enough for production.
See how it works
Where the device returns a response for every channel, the number of measurements per update stays the same as the channel count grows. Controlled simulations extend to one million channels.
Explore scaling
Keep correcting while the physical system moves. Performance depends on receiving measurements that still reflect the current state of the device before drift makes them stale.
Explore regulation
Evaluate through the hosted endpoint, then deploy on-premises when transport time becomes part of the operating deadline.
Explore applicationsHardware demonstrations, controlled simulations, and economic projections remain separate so every number says exactly what it proves.
Fit is a technical question, not a slogan.
How far do your parameters move between complete acquisition passes, in units of your control span? A tenth of the span or more is the tested regime this product was built for.
Run the five checksNo scheduling, routing, portfolio, QUBO, or single-number objectives. No faster individual device operations or simulator calls. No larger simulations. No quantum advantage. No claim against an accurate model that remains current. No operation beyond the tested drift, readout, target, and coupling boundary.
Read the technical boundaryCompare TrueLoop with your best incumbent on the same plant, from the same start, under the same measurement and wall-clock budget.
Read the envelopeThe new designs only made sense once stability could be assumed. Component-observable wave hardware is at that moment now.
See the staged impact