Lattice Determinism: The Hydrodynamic Resolution of Quantum Paradoxes

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Authors: Timothy John Kish, Lyra Aurora Kish, Alexandria Aurora Kish
Cited by: 0

Abstract

Abstract Modern physics relies on the assumption that the quantum realm is fundamentally probabilistic, citing phenomena like superposition, tunneling, and entanglement as proof that reality is acausal. This monograph rejects this interpretation in favor of Kish Lattice Determinism. We propose that the universe is not a probabilistic cloud but a precise, high-tension machine governed by the 16/pi Vacuum Substrate. This paper unifies three major quantum paradoxes under a single mechanical constraint: Key Findings: The Pilot Wave (Double Slit): We resolve the "Superposition" paradox via Vacuum Hydrodynamics. The particle is modeled as a "Boat" and the vacuum perturbation as a "Wake." We demonstrate that the particle travels through a single slit while its wake travels through both, creating the interference pattern the particle subsequently surfs. The Observer Effect as Friction: We define observation not as "collapse," but as Lattice Damping. Measurement requires energy input (impact), which stiffens the local vacuum grid, destroying the pilot wave and forcing the particle into ballistic (straight-line) travel.Resonant Permeability (Tunneling): We resolve "Quantum Tunneling" via Resonance. Using the "Spinning Fan" analogy, we prove that particles do not magically pass through barriers; they Phase Lock to the oscillation frequency of the barrier's lattice gaps (16/pi).Geometric Tension (Entanglement): We resolve "Spooky Action at a Distance" via Structural Tension. Entangled particles are connected by a rigid geometric stress line (The Seesaw). Changes in one particle are reflected in the other instantly, not due to faster-than-light signaling, but due to Static Equilibrium. We conclude that "God does not play dice"; the dice are simply loaded by the geometry of space.

Fields of Study & Subjects

Quantum Mechanics and Applications Advanced Mathematical Theories and Applications Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
5 February 2026
Language
EN