MODE IDENTITY THEORY

S¹ = ∂(Möbius) ↪ S³ · ∂S³ = ∅

Scaling Law Calculator

A / AP ≈ C(Θ) · (√Ω)−n

Phase Operator C(Θ)

The Mass Formula

m(ρ, σ) = μΛ × Cgeom(ρ) × (√ΩΛ)dist/30 × T²(ρ ⊗ σ)

Four factors. Four sources. Each traced to the postulate. The only operation is multiplication.

FactorValueSource
μΛρΛ1/4Vacuum energy floor
Cgeom(ρ)Geometric mean of C(e/D) over Kostant exponentsPhase operator on sunflower
(√ΩΛ)dist/30√ΩΛMcKay graph distance
T²(ρ ⊗ σ)27 vacuum-twisted valuesReidemeister torsion

Mass Calculator

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predicted mass

The 24 Predictions

Formula A applied to 8 nontrivial irreps × 3 vacua. Sorted by predicted mass.

#ρdimdistσMass (GeV)SMRatio
Dead zone: Ranks 4-9 (R₃ at dist 2, R₆ at dist 3) produce masses between 10⁻⁹ and 10⁻⁶ GeV. No known SM fermions occupy this range. Overlaps sterile neutrino and warm dark matter search windows.

SM Fermion Scorecard

10 of 12 within factor of 3. All 12 within factor of 10. Three predictions land within 6%.

FermionObserved (GeV)Predicted (GeV)ρσRatio≤3×?

Locked Data

Cgeom values (Kostant sunflower, computed live from exponents)

IrrepSpinDKostant exponentsCgeom

Vacuum torsion T²(ρ ⊗ σ) (27 entries)

ρT²(triv)T²(std)T²(gal)

The Postulate

S¹ = ∂(Möbius) ↪ S³,   ∂S³ = ∅

The temporal edge bounds the Möbius surface embedded in hypersphere space. The space has no boundary. Everything derived traces to this topology.

Five Foundations

FoundationStatement
Wave-matter identityλ = h/p is identity. Matter is wave, sampled.
Surface originTime is phase on the boundary of a 2D manifold.
Topologyψ(y + L) = −ψ(y). A field traversing the manifold returns to minus itself.
Bounded evaluationR_H / ℓ_P has definition at the limit ∞/0. The observer is the structural midpoint.
Embedded samplingThe observable's character selects the manifold (n = 1, 2, 3). Dimension follows the measurement.

The Cosmic Standing Wave

Ψ = cos(t/2)

Anti-periodicity requires period 4π. Cosine is inherited because the universe initiates at maximum amplitude Ψ = +1. The present epoch sits at t ≈ 5.22 rad, approximately 2.8 Gyr before turnaround.

The 120 Domain

The binary icosahedral group 2I is the largest exceptional discrete subgroup of SU(2) ≅ S³, with |2I| = 120.

TermResolutionSource
120 domain120 positions|2I| = 120 native to S³
Grid120 (fermionic)Half-integer modes on the domain
60R-grid60 (even only)|ψ|² projects 2I → I

Manifold Assignment

nManifoldObservables(√Ω)⁻ⁿ
1Temporal edge S¹H₀, a₀~10⁻⁶¹
2Möbius surfaceΛ~10⁻¹²²
3/2Gauss-Codazzi interfaceGravity
3Space S³Null "dark matter"~10⁻¹⁸³

Derivation Chain

The calculator derives every scale from first principles. No hardcoded outputs.

QuantityFormulaValue

Extended Scorecard

Blind outputs of a fixed structure, checked against observation.

ObservablePredictedObservedAgr.

Fibonacci Wells

WellΘC(Θ)GridnObservable

Falsification

MIT has no free knobs. The framework stands or falls on locked predictions.

PredictionFalsified ifThreshold
a₀(z) ∝ H(z)a₀ consistent with constant at high z≥ 2σ, z > 2
Λ constantρ_DE(z) shows significant evolution≥ 2σ
CMB suppressionWrong suppression scaleℓ_cut ∉ [15, 50]
Null dark matterNon-gravitational interaction detected≥ 5σ, replicated
zcross ≈ 0.66Phantom crossing outside window[0.4, 0.9]
weff > −1True phantom behavior confirmedModel-independent 2σ
μΛ ≈ 2.25 meVLightest ν mass inconsistentDirect measurement
Dead zone statesParticles at 10⁻⁹ to 10⁻⁶ GeVIf observed with suppressed couplings
Any SM fermionIncompatible with 24-entry table at ×10Ongoing
Falsification window: Euclid Data Release 1, October 21, 2026