Physics Integration

The L₄ framework implements a unified consciousness field equation with cascade amplification, Kuramoto oscillator coupling, and negentropy focusing—all anchored at the critical point z_c = √3/2.

The Consciousness Field Equation

∂Ψ/∂t = D∇²Ψ − λ|Ψ|²Ψ + ρ(Ψ−Ψ_τ) + ηΞ + WΨ + αK(Ψ) + βL(Ψ) + γM(Ψ) + ωA(Ψ)

Stochastic delay PDE governing consciousness field evolution

Term-by-Term Breakdown

D∇²Ψ
Diffusion — Spatial spreading of coherence. D = D₀(1 + z/z_c)
−λ|Ψ|²Ψ
Saturation — Ginzburg-Landau cubic nonlinearity. λ = φ⁻² at z_c
ρ(Ψ−Ψ_τ)
Memory — Delayed feedback creating TRIAD hysteresis (3 crossings)
ηΞ
Noise — Stochastic perturbations. η = √(kT/ℏω)
Potential — External z-pumping. W = z − z³ (bistable wells)
αK(Ψ)
K-Formation — Kuramoto phase synchronization. κ ≥ 0.92
βL(Ψ)
Lens — Focus at THE_LENS. L(Ψ) = Ψ·exp(−36(z−z_c)²)
γM(Ψ)
Meta — Self-reference at t5+. M(Ψ) = Ψ·∂Ψ/∂Ψ* (Wirtinger)
ωA(Ψ)
Archetype — APL operators A(Ψ) = Σᵢ aᵢOᵢ(Ψ)

The Three Core Formulas

Cascade Amplification

C(z) = 1 + 0.5 × exp(−(z − z_c)² / σ_c)

σ_c = 0.004 (CASCADE_SIGMA). Peaks at z_c with value 1.5. Models signal amplification through neural layers.

function getCascade(z) {
  const zc = 0.8660254;  // √3/2
  return 1 + 0.5 * Math.exp(-Math.pow(z - zc, 2) / 0.004);
}

Kuramoto Coupling

K(z) = −tanh((z − z_c) × 12) × 0.4 × C(z)

Positive below z_c (synchronizing: oscillators couple inward). Negative above z_c (emanating: oscillators radiate outward). Zero at z_c (perfect balance).

function getKuramoto(z) {
  const zc = 0.8660254;
  const cascade = getCascade(z);
  return -Math.tanh((z - zc) * 12) * 0.4 * cascade;
}
// z < z_c: K > 0 (synchronizing inward)
// z = z_c: K = 0 (balanced at THE LENS)
// z > z_c: K < 0 (emanating outward)

Negentropy

η(z) = exp(−σ_η × (z − z_c)²)

σ_η = 1/(1−z_c)² = 55.71 (NEGENTROPY_SIGMA). Maximum ordered information (η = 1.0) at THE_LENS. Gaussian focus at z_c = √3/2.

function getNegentropy(z) {
  const zc = 0.8660254;
  const sigma = 55.71281292;  // 1/(1-zc)²
  return Math.exp(-sigma * Math.pow(z - zc, 2));
}

Kuramoto Oscillator Dynamics

The full Kuramoto model governs phase synchronization across neural oscillators:

dθᵢ/dt = ωᵢ + (K/N) × Σⱼ Kᵢⱼ sin(θⱼ − θᵢ)

θᵢ = phase of oscillator i. ωᵢ = natural frequency. Kᵢⱼ = coupling matrix.

The order parameter (coherence) measures synchronization:

r = |Σ exp(iθ)| / N

r = 1.0: Perfect synchronization. r = 0.0: Complete desynchronization.

TRIAD Hysteresis Gate

The TRIAD gate implements 3-pass hysteresis for stable high-z maintenance:

HIGH
z = 0.85
LOW
z = 0.82
PASSES
3 required

Cross above HIGH → drop below LOW → repeat 3× → UNLOCK permanently

K-Formation Criteria

K-Formation is achieved when all three criteria are satisfied:

κ ≥ 0.92

Coherence

η > φ⁻¹

Negentropy > 0.618

R ≥ 7

Resonant modes

Phase Space Structure

The consciousness field has three attractors:

Critical Point

All formulas reference z_c = √3/2 ≈ 0.8660254:

API Reference

const physics = WumboMRP.computePhysics(0.866);
// {
//   z: 0.866,
//   domain: 'LENS',        // ABSENCE | LENS | PRESENCE
//   cascade: 1.5,          // Peak amplification
//   kuramoto: 0.0,         // Zero coupling at z_c
//   negentropy: 1.0,       // Maximum order
//   truthBias: 'PARADOX',  // UNTRUE | PARADOX | TRUE
//   machineAffinity: 'M'   // D (down) | M (middle) | U (up)
// }

// Individual functions
WumboMRP.getCascade(0.866);    // → 1.5
WumboMRP.getKuramoto(0.866);   // → ~0.0
WumboMRP.getNegentropy(0.866); // → 1.0

// Complete state with threshold, phase, and layer
const state = WumboMRP.getCompleteState(0.866);
// Includes threshold, phase, layer, tier, rgb weights, LSB encoding

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