How Could Constraint-Based Realization Be Falsified?

A falsification condition is a predeclared observation or result that would count against a specified theoretical model. In Constraint-Based Realization (CBR), a proposed framework for quantum outcome realization, the test must identify its physical implementation, proposed distinction from an ordinary quantum-mechanical baseline, nuisance bounds, sensitivity, and decision criteria before the data are interpreted. A model should not be protected from a contrary result by redefining its prediction after the measurement is known.

A missing signal is not automatically a falsification. It is inconclusive when the setup lacked the sensitivity or calibration needed to observe the proposed effect, or when relevant nuisance contributions were not bounded. A strong null is different: under a predeclared, adequately calibrated, and detectability-valid test, baseline-class behavior across the registered critical domain can challenge the registered model. In the CBR research program, that conclusion applies to the specified instantiation and its fixed conditions—not to every imaginable later revision of a broader idea.

A residual that differs from a baseline is not, by itself, confirmation of CBR. It requires independent calibration, separation from nuisance explanations, comparison with hostile alternatives, and replication. Conversely, revising a model only after its registered strong-null condition fails creates a new model or new instantiation; it does not erase the result for the original one. This is a discipline of public exposure, not a claim that an experiment has already confirmed the proposed law-form.