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🌌Universe Simulator

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GPU Accelerated (WebGL 2.0)
Using 128² complex field grid — PHASE dynamics enabled
View: χ Curvature
🌀 Complex Ψ Field
Initializing GPU simulation...
Wells (χ < 10)
Transition
Voids (χ = 19)
Cosmic Timeline0.00 Gyr
Big BangFirst StarsGalaxiesSun FormsPresent
Big BangInitial singularity

Simulation Controls

Random phase blobs — instant structure

Field Statistics

Step0
χ Range
Max |Ψ|²

Complex Field Dynamics

Ψ = A·e^(iθ) — Complex wave with amplitude and phase

Phase θ — Encodes charge; gradient creates current

|Ψ|² — Energy density; creates χ depression (gravity)

How It Works

Complex Wave Field Ψ

Unlike a real scalar field, the complex field Ψ = A·e^(iθ) carries both amplitude (matter density) and phase (charge/spin).

Phase differences between regions create currents: j = Im(Ψ*∇Ψ). This enables angular momentum, charge flows, and swirling patterns that break the symmetry seen in real-field simulations.

Gravity from χ Depression

The χ field responds to matter via GOV-02: regions with high |Ψ|² cause χ to decrease. Lower χ means slower wave propagation — this IS gravity in LFM.

Matter accumulates in wells (low χ), repels from voids (high χ). The Mexican hat V(χ)=λ_H(χ²−χ₀²)² makes χ₀=19 a dynamical attractor; black hole interiors settle at −χ₀ = −19 (Z₂ second vacuum).

GOV-01 (Lattice Wave Equation):
∂²Ψₐ/∂t² = c²∇²Ψₐ − χ²Ψₐ
GOV-02 (χ Field Equation — full v14):
∂²χ/∂t² = c²∇²χ − κ(|Ψ|² + ε_W·j − E₀²) − 4λ_H·χ(χ²−χ₀²) − κ_c·f_c·|Ψ|²

Simulation of LFM coupled wave equations on a 128² lattice with complex Ψ field.
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