Physics

The sections that follow do not seek to replace modern physics, but to show that its fundamental structures — constants, spectra, symmetries — can emerge as necessary solutions of a coherent substrate. This work explores how a single geometric principle can give rise, without arbitrary tuning, to phenomena that resemble those of the Standard Model.

In other words, the goal is not to say “what happens” in the world, but to show how the world could describe itself from its most fundamental conditions of existence. Physics retains its experimental, predictive, and quantitative role; what is targeted here is the generative structure that makes these forms possible.

This approach could also shed light on certain open questions in theoretical physics, such as the origin of fundamental constants (for example h, c, G, or the fine-structure constant α), the mass hierarchy, the nature of gravity, dark matter, or the stability of quantum states across different scales. In this framework, these phenomena are not arbitrary given facts about the world, but structural effects of the way CELA complexifies while preserving internal balance between density and differentiation.

We will focus primarily on the constituents of ordinary matter: quarks, leptons, and the interaction carriers (bosons). But the aim is not to explain physics from CELA; rather, to show that physics can necessarily emerge from a process of self-complexification governed solely by the fundamental attributes of the substance of the real.

Thus, what follows does not describe the world: it shows why the world can be as it is.

Going further — Full physics corpus (018–069)

The CdR Physics domain relies on a structured set of images and technical documents forming a coherent path, from fundamental formalism to advanced quantum phenomena.

• Fundamental structure (006, 018–022)

  • image006 — Emergence of physical forms and notions from multiple spatio-temporal axes
  • image018 — 1D → 2D → 3D visual convention — Axis, Plane, Tetrahedron, Cell
  • image019 — Extension of the structure toward a multi-volumic framework
  • image020 — Discrete 6D prototype — combinatorial cells and numerical validation
  • image021 — Evolution of a 6D cell — superposition, entanglement, and global coherence
  • image022 — Internal 6D geometry — combinatorial blocks and graph structure

• Space-Time (023–029)

  • image023 — Θ scale — quantum space-time and constants c and hbar
  • image025 — Dynamic viscosity of the spation — viscoelastic model of space-time
  • image027 — Sub-spatial interactions — non-local coherence in 6D
  • image028 — Inflarereaction — generative mechanism of form and energy
  • image029 — Stabilized overpressure — stationary closure of inflarereaction

• Matter (030–042)

  • image030 — Transion threshold — structural limit of the spation
  • image031 — Combinatorial intersection — 6D → 7D transition
  • image032 — Visual grammar of transions — 6D → 7D representations
  • image033 — Active transion — real flow vortex with intake spiral
  • image034 — Post-transion dynamics — Φ double-vortex and unipolar shift
  • image035 — 6D vortex — first stable material structure
  • image036 — Internal rotation modes — spin as internal mode of Φ vortices
  • image037 — Spin — quantified dephasing and stability of the double-vortex
  • image038 — Stationary states — static wave and spatial structure of mode n
  • image039 — Internal origin of mass — configuration energy and Φ-field compactness
  • image040 — Particle generations — internal compactness 1Φ, 2Φ, and 3Φ
  • image041 — Vortex — internal compactness limit and instability
  • image042 — Complete particle table — Φ vortex coherence and emergent masses

• Fundamental forces (043–065)

  • image043 — Gravitation — spationic flow and density depression
  • image044 — Geometric origin of charges — sigma triplets and axis overlap
  • image045 — Baryonic confinement — spationic tension and proton radius
  • image046 — Residual nuclear interaction — spationic overlap and Φ overpressures
  • image047 — Internal structure of nucleons — axis sharing and 6D coherence
  • image048 — Proton, neutron, and neutrino spations — internal coherences and 0/3 degrees
  • image049 — β decay — d→u conversion, σ_W tension, and Fermi constant G_F
  • image050 — Electron capture — u→d conversion and neutrino emission
  • image051 — Spationic origin of charge — internal orientation and field lines
  • image052 — Electrostatic force — coherence rebalancing between two poles
  • image053 — Electromagnetic flux — directional continuous regimes
  • image054 — Φ flux flow regimes — continuous and discontinuous
  • image055 — Birth of magnetism — transverse effects of discontinuous Φ flux
  • image056 — Magnetism — interaction between currents via vortex orientation
  • image057 — Induction and electromagnetic wave — joint emergence of E ⟂ B from a rhythmic Φ flux
  • image058 — Orbitals — phase condition and stationary modes of the Φ field
  • image059 — Electronic orbitals — stationary modes and quantum numbers (n, l, m)
  • image060 — Photon — structure, quantization, and fine-structure constant α
  • image061 — Photon propagation — speed of light, refraction, and gravitational deflection
  • image062 — Light absorption and scattering — photon–electron coupling and selection rules
  • image063 — Photon — from electromagnetic wave to quantized closure
  • image064 — Photon — coherence range and unique selection upon absorption
  • image065 — Single photon, double slit, and “path” in CdR

• Entanglement & Non-locality (066–069)

  • image066 — EPR entanglement — long-range correlation
  • image067 — Bell inequalities — local violation
  • image068 — Multi-particle entanglement — GHZ, W, and cluster
  • image069 — Advanced entanglement protocols

To consult each document in the dedicated editor, use the “View in viewer” button after opening a file.