Probabilistic Geometry for Quantum Motion Prediction: An Approach to Unifying Relativity, Quantum Theory, and Tenson Theory

This paper proposes a theoretical framework for predicting quantum motion by incorporating probabilistic geometry. The probabilistic nature of quantum mechanics—represented by fluctuations in the wave function ψ(x, t)—is unified with geometric fluctuations in spacetime, allowing the “shape” of probability distributions to serve as a tool for motion prediction. This approach provides a potential connection model between spacetime and probability, bridging the gap between quantum theory and relativity. Furthermore, when combined with Tenson Theory—a framework that treats time as a hypothetical particle (“tenson”) and describes temporal flow and irreversibility as quantum excitations of a time field—it forms the basis for a unification scheme with three pillars: relativity, quantum theory, and probabilistic geometry. This unified perspective may lay the groundwork for a Grand Unified Theory and address unresolved problems in modern physics .