Experimental Programme
Phase Differential Theory commits to falsification-ready predictions. The experimental programme brings those predictions into contact with precision measurement and computational simulation.
Test 01
Approach
Precision matter-wave interferometry across mass and path-length regimes, searching for a sub-percent coherence floor predicted by the phase-snap mechanism.
Predicted signature
A residual, mass-scaling loss of interference visibility that departs from standard decoherence models.
Test 02
Approach
Short-range gravity and precision force measurements probing a Yukawa-like correction whose range and coupling are constrained by the unified source propagator.
Predicted signature
A departure from the inverse-square law confined to a narrow length-scale window rather than a broadband correction.
Test 03
Approach
Entangled photon experiments monitoring decoherence phase shifts under parity-sensitive geometries.
Predicted signature
A small parity-violating phase in entangled decoherence, absent from conventional treatments.
Falsifiability
The three signatures above are within reach of existing precision experiments. Absence of any one of them at the precision currently available would falsify the framework in its present form.
The experimental programme is developed in the open, together with the computational infrastructure required to compare data against PDT predictions.
