METHOD / REPRODUCIBILITY / CLAIM CONTROL

Methodology

The purpose of a numerical study is not to obtain an attractive plot, but to construct a testable chain in which a favourable regime survives required controls and failure modes remain visible.

01 / EVIDENCE LADDER

Claim levels are not interchangeable

Every study page states what type of result is presented and what it does not establish.

LevelWhat it meansBoundary
HypothesisA proposed mechanismNo result yet
Numerical resultAn observable from one calculationRequires robustness checks
Simulation studyA documented series under one modelBounded by equations and parameters
Numerical PoCA linked chain of controls and stress testsSupports a mechanism at model level
Laboratory validationAn independent physical experimentTests correspondence with reality
Experimentally confirmed resultA reproducible physical measurementNot automatically industrial readiness

02 / WORKFLOW

Six required transitions

The exact tests change with the physics of the problem; the verification logic remains stable.

Define the falsifiable question

Translate the idea into state variables, observables, assumptions, and an outcome that can fail.

Build the smallest defensible model

Choose equations, discretisation, boundaries, initial conditions, and diagnostics appropriate to the question.

Establish controls and balance checks

Add passive, null, negative, ablation, conservation, and numerical-validity controls before interpreting a favourable branch.

Run a structured experiment campaign

Sweep parameters, seeds, perturbations, and resolutions; retain negative and failure results.

Audit robustness and claim boundaries

Separate model-level evidence from assumptions, artefacts, untested extrapolation, and laboratory claims.

Package evidence and the next test

Deliver reproducible methods, diagnostics, limitations, and an explicit laboratory or engineering follow-up.

03 / CONTROL SET

Typical control set

Not every project needs every item, but omissions must be justified.

Balance and invariants

Mass, energy, fluxes, constraints, and numerical error.

Passive and null baselines

What happens without the claimed mechanism or controller.

Negative control

A configuration expected to destroy the target effect.

Mechanism ablation

Removal of a term, channel, or feedback pathway.

Seeds and initial states

Dependence on a specific realisation.

Grid and timestep

Discretisation, resolution, and timestep dependence.

Noise and perturbations

The range before degradation or collapse.

Metric triangulation

A coherent observable set rather than one convenient score.

Extrapolation boundary

What cannot be transferred to hardware without experiment.

STANDARD DISCLAIMER

This work is a numerical proof-of-concept. It establishes model-level behaviour under the stated assumptions and does not replace independent laboratory validation.