The Geometry of Motion

Motion is not an effect applied to matter; it is the geometry of matter itself. Thispaper presents a closed causal framework in which all physical behaviour arises from aminimal set of geometric operators acting on continuous recursion. Surplus, collapse,torsion, slip, polarity, and coherence nodes form the complete operator set requiredto generate stable identities and their transformations across scale. These operatorsproduce the familiar structures of mechanics, electromagnetism, and orbital dynamicswithout invoking fields, dipoles, or abstract forces. Instead, motion emerges from therecursive deformation of geometry under pressure, with each operator defining a distinctmode of continuity or collapse. The resulting system is scale-invariant, mechanicallygrounded, and self-consistent: the same recursion that governs atomic alignment governsplanetary locking, tidal evolution, and the stability of rotating bodies.This paper is the conceptual and geometric companion to the Cohesion UFTtechnical series [1]. It develops the intuition for the operator set without requiring thereader to follow a derivation. Readers who work through this paper first will find thetechnical series, which provides the mathematical derivations, numerical verifications,and falsifiable predictions, more accessible. The open problems of the technical series —particularly the particle mass spectrum beyond the electron and the full calibration ofthe variable-propagation function — apply here as well.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-26
DOI
https://doi.org/10.5281/zenodo.19780044
Primary Topic
Spacecraft Dynamics and Control
Type
article
Field-Weighted Citation Impact
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article

The Geometry of Motion

Dexter Gilbert
Zenodo (CERN European Organization for Nuclear Research)
Spacecraft Dynamics and Control
article

The Geometry of Motion

Dexter Gilbert
article en

Abstract

Motion is not an effect applied to matter; it is the geometry of matter itself. Thispaper presents a closed causal framework in which all physical behaviour arises from aminimal set of geometric operators acting on continuous recursion. Surplus, collapse,torsion, slip, polarity, and coherence nodes form the complete operator set requiredto generate stable identities and their transformations across scale. These operatorsproduce the familiar structures of mechanics, electromagnetism, and orbital dynamicswithout invoking fields, dipoles, or abstract forces. Instead, motion emerges from therecursive deformation of geometry under pressure, with each operator defining a distinctmode of continuity or collapse. The resulting system is scale-invariant, mechanicallygrounded, and self-consistent: the same recursion that governs atomic alignment governsplanetary locking, tidal evolution, and the stability of rotating bodies.This paper is the conceptual and geometric companion to the Cohesion UFTtechnical series [1]. It develops the intuition for the operator set without requiring thereader to follow a derivation. Readers who work through this paper first will find thetechnical series, which provides the mathematical derivations, numerical verifications,and falsifiable predictions, more accessible. The open problems of the technical series —particularly the particle mass spectrum beyond the electron and the full calibration ofthe variable-propagation function — apply here as well.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 2%
Spacecraft Dynamics and Control
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