UDEL Mathematics

The complete discrete formalism underlying the Universal Discrete Energy Lattice.

Introduction

This appendix presents the formal mathematical foundations of UDEL — the Universal Discrete Energy Lattice. All equations are fully discrete: no limits, no manifolds, no renormalization, and no infinities. Every physical phenomenon arises purely from nodes, adjacency, energy conservation, hop-geometry, and layered time.

Lattice & Adjacency Space

Nodes are defined as:
nᵢ = (Eᵢ, Aᵢ)
Adjacency produces geometry through hop-distance, with no coordinates and no continuous metric.

Local Time (Δt)

Local time emerges from redundancy in transition probabilities:
Δtᵢ = 1 / Σⱼ (Tᵢⱼ)²
This forms the discrete analogue of curvature-induced time dilation.

Zero-Energy Condition

Σᵢ Eᵢ = 0
Positive adjacency energy and negative path-density energy cancel exactly.

Motif Identity

Stable patterns of adjacency form particle families, with fixed or cyclic attractors guaranteed by the finiteness of the adjacency map.

Shell Geometry & NFW Profile

ρ(k) ∝ 1 / ( k (1+k)² )
Pure hop-distance diffusion yields the exact Navarro–Frenk–White halo profile.

Curvature Mapping

R(i) ∝ − ∇² ρ_path(i)
Gravity emerges from deficits in path density.

Layer Coupling (Dark Matter)

Layer-shifted energy produces gravitationally visible but electromagnetically invisible mass.

Motif Stability

Stable motifs satisfy:
Tᵢⱼ(t+1) = Tᵢⱼ(t)
This yields confinement, decay rates, EM coherence, and gravity scaling.

Force Scaling

Each force corresponds to a motif scale S:
Gravity: S → ∞ EM: S ≈ 10² Strong: S ≈ 3–6 Weak: S ≈ 1–3

Horizon Formation

Δtᵢ = Dᵢ
Horizons form when adjacency becomes uniform; entropy is |∂H|.

Entropy Bounds

S ≤ |∂H|
Information is bounded by the size of the boundary.

Flux Quantization & Hawking Leakage

Leakage flux is discrete due to finite adjacency and energy values.

Appendix Summary

The UDEL mathematical framework proves that geometry, gravity, fields, particles, dark matter, horizons, and cosmic evolution emerge from finite combinatorics alone: nodes, adjacency, hop-distance, energy symmetry, and layered time.