PMES (photon membrane equlibrium singularity): Theory of Projective Crystallization – Preliminary Framework.
Abstract
This work provides a detailed description of the Theory of Projective Crystallization (TPC), which forms the core of a new, holistic physical theory – PMES (Photon Membrane Equilibrium Singularity). In contrast to standard models, which take spacetime and particles moving within it as fundamental, TPC proposes a completely new paradigm: we live in an illusory, yet complete reality (A), which is a two-dimensional (plus time) holographic projection of a far simpler, fundamental physical process. This process is a crystallization wave propagating through the four-dimensional, geometric source space called the "Mother" (B). Key elements of the theory are: Space B (The Mother): A four-dimensional (3 extended + 1 looped) structure undergoing a phase transition from a disordered (liquid) phase to an ordered (crystalline) phase. This is not "3D + time," but a geometric structure where the looped dimension serves as an ordering parameter. Transformation T (Parabolic Rotation): A mathematical mapping that transforms the looped dimension of B into our linear time, while projecting the remaining three dimensions onto a two-dimensional sphere called 'now'. This transformation is a compensation for the loss of a degree of freedom, preventing the physical overlap of objects in B. Defects as the Source of Everything: All phenomena in A – light, matter, interactions – are projections of topological defects (dislocations, strains, vortices) forming on the dynamic crystallization wavefront in B. Explanation of Cosmological Phenomena: Time and motion are sequences of static images (projections) of successive states of the front. Cosmological redshift and the flatness of the Universe arise from the geometry of the growing 'now' sphere, not from the expansion of space. Gravity is the projection of the tendency of defects to concentrate, forming local bulges (bumps) on the front. Black holes are images of bumps so steep that the original transformation T ceases to function beyond them, leading to a mathematical event horizon. Gravitational lensing with time delays results from differences in the angular path lengths on the 'now' sphere required to render the image of the source. The work guides the reader through the logical structure of TPC, demonstrating how the theory offers unified, elegant explanations for the problems currently separating quantum physics and cosmology. At the same time, the authors clearly indicate that TPC is a theory in its conceptual phase, urgently requiring rigorous mathematical formalization (deriving the form of transformation T from first principles) and quantitative predictions (e.g., values of physical constants). They also identify specific paths for observational verification, such as precise analysis of lensing time delays or the search for subtle anisotropies in fundamental constants. TPC is not merely another speculation, but an attempt to construct a coherent, alternative system of thought that lays the groundwork for a potentially groundbreaking understanding of the nature of time, space, matter, and the origin of the Universe. This work aims to inspire both theoretical physicists to undertake the challenge of its formalization and observers to seek new types of signals that could confirm or falsify its key predictions.
Fields of Study & Subjects
Relativity and Gravitational Theory
Advanced Mathematical Theories and Applications
Noncommutative and Quantum Gravity Theories
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 4 February 2026
- Document type
- Thesis