Time symmetry and the Einstein paradox

O. Costa de Beauregard

O. Costa de Beauregard

A paradox, according to dictionaries, is a surprising but perhaps true statement. Copernicus's heliocentrism was once a paradox. The problem with a true paradox is not in reducing it but in expressing it--as Einstein did with his relativity theory expressing the physical content of the Lorentz-Poincare' formulas of electrodynamics. Today again we have good formulas, those of quantum mechanics, but have not yet understood all their meaning. It is the paradox uncovered by Einstein at the 1927 Solvay Conference (and better known as the Einstein-Podolsky-Rosen [E.P.R.) paradox) which forces us to a dramatic revision of traditional ways of thinking about time. The paradox emerges with special clarity from a conceptual experiment in which two spatially separated systems on the quantum scale are made to interact, but the only causal link between them is by way of an event in their common past. The paradox can be expressed in terms of the formal (de jure) symmetry between retarded and advanced interactions in physical theory, interactions which affect the future and the past respectively, independently of the de facta preponderance in nature of retarded interactions. The possibility that advanced interactions may occur de facta in large-scale systems is briefly discussed. * Lecture delivered at the Third Conference of the International Society for the Study of Time, Alpbach, July 1-10 (1976).

Herbert Dingle

O. Costa de Beauregard

Baoliin (Zaitian) Wu

What is time? The century-long debate over the compatibility of quantum mechanics and general relativity centers on foundational paradoxes such as the Einstein photon box experiment. We resolve these paradoxes within the Modified Einstein Spherical (MES) Universe Model, an idealized geometric framework unifying quantum nonlocality, cosmic-scale entanglement, and chaotic spacetime dynamics. By introducing novel geometric corrections—Zaitian Quantum Power, Nonlinear Symmetry and Chaotic Power—the MES Universe Model achieves joint Energy-Time precision ( ∆Εtotal ∆t ≈ 0), challenging the Heisenberg Uncertainty Principle. A key conceptual innovation is the redefinition of time as a Chaotic Phase-Locked Variable, time emerges as a parameterized oscillatory phase of spacetime geometry, synchronized globally through entanglement networks, potentially allowing for Planck temporal precision. The MES framework not only reconciles Einstein’s vision of a deterministic universe with quantum mechanics but also provides a geometric pathway to macroscopic quantum coherence and cosmic-scale communication. In essence, the MES Universe model reveals that the topology and global structure of spacetime can critically influence local quantum measurements, a concept that could have implications for quantum gravity and cosmology and offer a novel time hole toward unifying quantum and relativistic physics.

Theodore P. Jorgensen