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MetroVolt › Readiness & Timeline
Readiness & Timeline

How We Validate Before Building

MetroVolt is validated in layers — code verification, physics validation, digital twin, then hardware — so that each build tests specific predictions.

Validation in layers

Validation is not one act but a sequence. Each layer catches different errors: code verification checks the math is solved correctly, physics validation checks the models match known experiments, the digital twin integrates them into a machine-level prediction, and hardware tests the whole against reality.

Code verificationAre the equations solved correctly and reproducibly?DESIGNPhysics validationDo models match known experiments and data?PARTIALDigital twinDoes the integrated machine prediction hold together?DESIGNHardware test (~2032)Does the real machine match the prediction?OPEN

Predictions, then tests

The point of validation is to enter each hardware step with specific, falsifiable predictions. The ~2032 test unit is not an open-ended experiment; it checks named predictions about confinement, field, DEC efficiency, and materials. Where measurement disagrees with prediction, the models are corrected before the next build.

This layered approach is why MetroVolt calls itself a design and simulation study today, and why the honest gates are stated before, not after, the hardware.

Content reviewed August 2026 · design-and-simulation stage