Unified Einstein-Rosen Network Theory

A unified topological approach to reality: From the Cosmic Paraboloid to the Space-Time Particle.
By Christian Eschalier

Discover the Model

The 5 Pillars of TERN

📐

Paraboloidal Geometry

The Universe is not a homogeneous sphere, but an expanding paraboloid of revolution. This shape imposes a unique focal point: the Great Attractor.

🕸️

Cosmic Network (Rhizome)

Space-time is a physical fabric of Einstein-Rosen bridges (wormholes). The observed "Cosmic Web" is the very structure of this network.

⚛️

Particle = Knot

Matter is not added to space. A particle is a stable topological knot defined by: Curvature (Mass), Torsion (Charge), Vibration (Quantum).

🌌

End of Invisible Entities

No Dark Matter (particles) or Dark Energy (fluid). These are emergent effects of the curvature and tension of the network.

TERN vs Standard Model (ΛCDM)

ΛCDM Model

  • Requires 95% undetected invisible entities (WIMPs, Dark Energy).
  • Homogeneous and isotropic Universe (Hubble Tension problem).
  • Cosmic structure formed slowly by gravitational collapse.
  • Initial singularity (Big Bang) and probable thermal death.
  • Strict dualism: Space-time (stage) vs Matter (content).

TERN Model

  • 100% topological: Matter is a configuration of space-time.
  • Anisotropic paraboloidal geometry (resolves Hubble Tension).
  • Innate structure ("Rhizome") crystallized since the Grand Deployment.
  • Cyclic and eternal Universe via Black Hole/White Hole recycling.
  • Monism: A single substance (the Einstein-Rosen Network).

Mathematical Formalism

System of 5 coupled equations (Supplementary Report N°4) describing the genesis, stability, and dynamics of the network.

Equation I: Primordial Network Density

Defines the numerical density of bridges as a fossilization of stretched Wheeler foam.

$$ n_{net}(t) = \eta \cdot \left( \frac{L_H(t)}{\ell_P} \right)^3 \cdot e^{3N_{inf}} $$
Variables: \( \ell_P \) (Planck Length), \( L_H \) (Hubble Radius), \( N_{inf} \) (inflation e-folds), \( \eta \) (Topological crystallization factor).

Equation II: Topological Stability Condition

Inequality ensuring wormhole throat openness via Casimir pressure.

$$ a \ge a_{crit} = \sqrt[3]{\frac{30 c^3 \kappa G \hbar}{\pi^3}} $$
Significance: If the throat radius \( a \) meets this condition, the network is stable without unknown exotic matter.

Equation III: Modified Gravitational Field (Unified Dark Matter)

Modification of Einstein's tensor including static curvature and porosity flux.

$$ G_{\mu\nu} + \Lambda_{eff}(n_{net})g_{\mu\nu} = \frac{8\pi G}{c^4} \left( T_{\mu\nu}^{baryonic} + T_{\mu\nu}^{curvature} + T_{\mu\nu}^{nano} \right) $$
Note: The term \( T_{\mu\nu}^{nano} \) represents the diffuse flux emitted by nano-white holes (porosity), acting as "warm" dark matter.

Equation IV: Porosity Flux and Nano-Emission

Quantifies energy escaping laterally from the network (quantum leaks).

$$ F_{diff}(r) = \Phi \cdot \epsilon_{nano} \cdot \int_V \rho_{BH}(r') \dot{m}_{acc}(r') dV' $$
Impact: This flux explains interstellar medium heating and the smoothing of dwarf galaxy cores (Cusp-Core problem).

Equation V: Expansion Anisotropy (Hubble Tension Resolution)

The Hubble constant varies according to the local network density traversed by the observation.

$$ H_0(\hat{n}) = H_{fond} \left[ 1 + \delta_H \cdot \int_0^D (n_{net}(r, \hat{n}) - \bar{n}_{net}) dr + \alpha \Phi_{moy}(\hat{n}) \right] $$
Conclusion: This equation mathematically predicts the gap between Planck (global) and SHOES (local) measurements without exotic new physics, solely through topology.

Publications & Data

Official Research Archive

Access the complete collection of technical reports, mathematical proofs, and observational analyses on the official Zenodo repository.

Visit Zenodo Archive
Community: Théorie TERN | Period: 2025-2026