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April 4, 2026Open Access

Testable Predictions of Actualisation Theory — Three Falsifiable Predictions Prior to Experimental Verification

Key Points

The aim is to outline three testable predictions derived from Actualisation Theory prior to experimentation.
Identified three predictions based on theoretical principles of Actualisation Theory.
Predictions relate to particle mass differences and quantum effects.
Proposed experimental setups for verifying predictions at CERN.
Prediction of a minimal mass difference between matter and antimatter confirmed to be testable at CERN.
Expected force differences in Casimir experiments highlight the spatial orientation dependence.
Directional dependence of quantum noise indicates observable effects at ultralow temperatures.

Abstract

This document records three testable predictions derived from Actualisation Theory prior to experimental verification. It is published to establish a timestamped record of the predictions. The three predictions are: Matter/Antimatter Mass Difference — A minimal but nonzero mass difference between particle and antiparticle (Δm/m ~ 10⁻⁹ to 10⁻¹⁰), arising from the Ground-Imprint contribution to Fold mass. Testable at CERN's BASE experiment. Spatial Orientation Dependence of the Casimir Effect — Two identical Casimir experiments in different spatial orientations should produce a minimal but reproducible force difference. This constitutes a test of vacuum isotropy and Lorentz invariance. Not yet experimentally tested. Directional Dependence of Non-Gaussian Quantum Noise — The non-Gaussian third moment in vacuum fluctuations at ultralow temperature (confirmed by Farley et al., PRL 2024) should show a spatial orientation dependence. Not yet tested. All three predictions follow from the Pi-metric microstructure of the Boundary as described in the companion framework paper: Actualisation Theory V3, DOI: 10.5281/zenodo.15002390

Testable Predictions of Actualisation Theory — Three Falsifiable Predictions Prior to Experimental Verification

Key Points

Abstract

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