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STF Framework — Derivation Strength Tree

Classification of all framework results as theorem, computed, constraint-fixed, or open

Z. Paz  ·  ORCID 0009-0003-1690-3669 V1.0 2026
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STF Framework — Derivation Strength Tree

Legend - [T] — Theorem / exact derivation - [C] — Computed (numerical or algebraic, result is well-defined) - [K] — Constraint-fixed (follows from stated inputs, not independently derived) - [A] — Approximation / leading-order identification - [O] — Open / not yet resolved

Two corrections applied (marked ✎): generation assignment [T/K]→[T]; δ_CP [A]→[C+note]. Maintained by Z. Paz — update when derivation status of any node changes.


STF FRAMEWORK
│
├─ A. BACKBONE
│  │
│  ├─ Framework Guide V3.1
│  │   └─ role: map / orientation / reading order
│  │
│  ├─ First Principles V7.7
│  │   ├─ ghost-freedom on relevant backgrounds .............. [T]
│  │   ├─ full operator uniqueness ........................... [O]
│  │   ├─ threshold relation D_crit = m_s M_Pl H_0 / 4π² ..... [K]
│  │   ├─ m_s = 3.94×10⁻²³ eV ............................... [K]
│  │   ├─ a* = 730 R_S ....................................... [K]
│  │   ├─ T = 3.32 yr ........................................ [K]
│  │   ├─ K = 2ωR/c .......................................... [T]
│  │   ├─ ζ/Λ ≈ 1.3×10¹¹ m² ................................. [K]
│  │   ├─ c_GB ~ O(1) ........................................ [O]
│  │   ├─ Ohmic IR sector required ........................... [T]
│  │   ├─ generation assignment closed ....................... [T]  ✎ (was [T/K])
│  │   │     Proof: monad long exact sequence, H*(A,B)=0
│  │   │     → isomorphism δ: H⁰(A,C) → H¹(A,V)
│  │   │     → A₁,A₂,A₃ are equivariant sections by pure
│  │   │       algebraic geometry, no external bundle data.
│  │   │       99.7% Gram alignment is confirmation, not input.
│  │   ├─ θ₁₃ = 8.55° ± 2° (canonical FS, α=2) ............. [C]
│  │   │     Note: FS at α=2 is canonical ambient metric.
│  │   │     Donaldson (θ₁₃=23.9°) is sensitivity check;
│  │   │     converges to Bergman kernel, not HYM fibre metric.
│  │   ├─ Cabibbo θ₁₂(CKM) = 14.1° .......................... [C]
│  │   │     Same FS Y^(0), Y_d=(Y_u)*. No metric correction.
│  │   │     Mechanism: sin(θ) ≈ |Im(Y)|/‖Y‖ from φ_CP=84.94°.
│  │   │     Symmetric with θ₁₃ across both sectors.
│  │   └─ larger CKM / PMNS angles, mass hierarchy .......... [P]
│  │         Steps 25–27 complete: σ₁/σ₂ = 5.72 (HYM) → 5.7–6.7 (RG)
│  │         Full EWSB (tan β=15.7): m_τ reproduced; m_τ/m_μ = 6.0 ≠ 16.82
│  │         Gap structural — mechanism for Yukawa hierarchy required
│  │
│  ├─ Topological Closure V6.1
│  │   ├─ ∫_{T²} ω_R∧ω_A = 4π² ............................. [T]
│  │   ├─ Pole Location Lemma ............................... [T]
│  │   └─ full propagator-level closure ..................... [O]
│  │
│  └─ Complexified Null Cone V0.9
│      ├─ advanced/retarded geometric seat .................. [A→C]
│      ├─ EXISTS/HAPPENS geometric grounding ................ [A]
│      └─ amplitude/workspace exponent from geometry ........ [O]
│
├─ B. PHYSICAL CONSEQUENCES
│  │
│  ├─ STF Cosmology V5.7
│  │   ├─ unified inflation / DE / MOND-style sector ........ [K/A]
│  │   └─ full sector closure ............................... [O]
│  │
│  ├─ Standard Model Unification V3.6
│  │   ├─ parameter-chain derivations ....................... [K]
│  │   └─ full precision closure across SM .................. [O]
│  │
│  └─ The Energy Problem V0.5
│      ├─ synthesis of Λ / DM / arrow-of-time .............. [A]
│      └─ exact closure of all constants .................... [O]
│
├─ C. LEPTON & QUARK FLAVOUR
│  │
│  ├─ 08a  BR(Z→μτ) from CICY #7447/Z₁₀  [V3.0]
│  │   ├─ exact 4th-order Picard-Fuchs operator ............. [T]
│  │   ├─ LCS Frobenius series fails at ψ_res=0.420 ......... [T]
│  │   │     Radius of convergence 1/25; ψ_res/R = 10.5.
│  │   ├─ t_res, ω₀(ψ_res), arg ω₀, G_tt̄, ε_K .............. [C]
│  │   │     Im(t_res)=0.20913 ±10⁻¹², φ_CP=84.940°
│  │   ├─ physical Yukawa magnitude |Y_phys|=0.0348 ......... [C]
│  │   └─ BR(Z→μτ) in 08a alone ............................. [A]
│  │         NDA estimate; loop operator was open at this stage.
│  │
│  ├─ 08b  Lepton Mixing and CP Violation  [V0.3]
│  │   ├─ C_Jarlskog = 0 for all 42 viable Z₁₀ textures ..... [T]
│  │   │     Exhaustive enumeration; |J| < 10⁻¹² numerical.
│  │   ├─ U_PMNS^tree = I ................................... [T]
│  │   │     Corollary of tree-level texture theorem.
│  │   ├─ rank-2 Yukawa / one structural zero (σ₃=0) ........ [C]
│  │   │     Confirmed across 5 patches and all bases.
│  │   ├─ δ_CP = 84.940°, |sin δ_CP| = 0.9961 .............. [C]  ✎ (was [A])
│  │   │     Computed from arg(ω₀(ψ_res)) — exact ODE
│  │   │     integration, 12-digit precision. Topological
│  │   │     invariant of the path. [A] applies only to the
│  │   │     final step: identifying this with the physical
│  │   │     PMNS Dirac phase (convention-dependent).
│  │   ├─ θ₁₃ = 8.55° flavor-structure context .............. [C]
│  │   └─ θ₁₂ solar / full neutrino masses / mode lifting ... [O]
│  │
│  ├─ 08c  The Z→μτ Operator  [V0.1]
│  │   ├─ winding/KK loop mechanism ......................... [T/K]
│  │   │     Closes the operator gap left open in 08a.
│  │   ├─ tree-level exclusion by winding conservation ...... [T]
│  │   └─ exact O(1) coefficient C .......................... [O]
│  │         Requires: KK spectrum from YM/HYM computation.
│  │         Same boundary as mass hierarchy / PMNS angles.
│  │
│  ├─ 08d  Radiative LFV: MEG-II  [V0.1]
│  │   ├─ minimal assignment → BR(μ→eγ) ≈ 5.7×10⁻⁸ ......... [C]
│  │   │     Exceeds MEG-II bound by factor ~2×10⁵.
│  │   ├─ MEG-II forces electron = null eigenvector ......... [K]
│  │   │     Turns experimental bound into structural
│  │   │     constraint on generation assignment.
│  │   └─ null eigenvector = electron confirmed ............. [T]
│  │         99.7% Gram alignment. Connecting homomorphism
│  │         proof (see First Principles node above).
│  │
│  └─ 08e  Experimental Programme  [V0.1]
│      ├─ falsification map / tier classification ........... [C]
│      └─ new independent derivations ....................... none
│            (synthesis paper — packages 08a–08d results)
│
├─ D. TEMPORAL & ONTOLOGICAL CONSEQUENCES
│  │
│  ├─ Theory of Time V4.3
│  │   ├─ time as threshold-dependent ....................... [K/A]
│  │   └─ broader ontological claims ........................ [A]
│  │
│  ├─ Pretemporal Stasis / Cascade V1.0
│  │   ├─ instability of pre-temporal stasis ................ [T]
│  │   ├─ STF identification of the generic threshold field .. [K]
│  │   └─ inflation / structure completion .................. [O]
│  │
│  ├─ The Structure of What Happens V2
│  │   └─ ontological synthesis ............................. [A]
│  │
│  ├─ Consciousness, Time & Identity V3.6
│  │   └─ inside-of-loop = temporal experience claim ........ [A]
│  │
│  ├─ Temporal Workspace V0.5
│  │   ├─ workspace law from threshold + Peters scaling ...... [K/C]
│  │   └─ biological / phenomenological mapping ............. [A]
│  │
│  └─ Retrocausality & Life V0.5
│      └─ biological threshold extension .................... [A/O]
│
└─ E. PREDICTIONS & VALIDATIONS
   │
   ├─ Spacecraft Flyby Anomaly Resolved ..................... [C]
   ├─ The Phantom Problem .................................. [T/C]
   ├─ STF Modulation of Pulsar Glitch Timing ............... [C]
   ├─ Uranus-Neptune Heat Paradox Resolved ................. [C]
   └─ remaining anomaly papers ............................. [C/A]

Three-Zone Summary

Zone 1 — Hardest core [T] and strong [C]

Zone 2 — Middle layer [K] and [C]

Zone 3 — Soft edge [A] and [P]


Key Dependency Edges

From To What it provides
First Principles V7.7 Topological Closure Field/threshold backbone
First Principles V7.7 08a Compactification choice, STF parameters
08a 08b Period/Kähler data for Yukawa structure
08a 08c Yukawa magnitude; names operator gap
08b + 08c 08d Yukawa structure + operator → MEG-II discriminator
08a–08d 08e All flavor results → falsification map
HYM metric (Step 25) 08c, 08b, 08d, FP σ₁/σ₂ = 5.72 computed; RG running → PMNS angles, mass hierarchy

The Single Leverage Point (Updated — Steps 25–27)

The HYM fibre metric has been computed:

3×3 vector Donaldson T-operator with MCMC uniform sampling on X σ₁/σ₂ = 5.72 ± 0.01 at the string compactification scale (converged)

One-loop MSSM RG running has been performed:

RG running M_s → M_EW (Step 26) σ₁/σ₂(M_EW) = 5.7–6.7 (tan β = 2–50) — max shift 17%

m_τ/m_μ = 6.0 vs PDG 16.82 — muon mass 2.8× too heavy

The gap is structural. It is not resolved by: - HYM metric (G ≈ I) - RG running (max +17%) - EWSB / tan β - Seesaw mechanism (neutrino sector only) - PMNS rotation (unitary, preserves eigenvalues)

Open problem: A mechanism generating additional Yukawa hierarchy is required to reproduce the physical m_τ/m_μ = 16.82.

Resolves simultaneously: - σ₁/σ₂ gap to m_τ/m_μ = 16.82 (lepton mass hierarchy) - θ₂₃, θ₁₂ solar (full PMNS matrix) - CKM θ₂₃, θ₁₃ (full CKM matrix) - MEG-II BR(μ→eγ) quantitative compliance - Coefficient C for exact BR(Z→μτ) - Q_wind, N_modes for KK spectrum


Last updated: 24 March 2026 — Steps 1–24 of derivations archive ORCID: 0009-0003-1690-3669

Citation @misc{paz2026strengthtree,
  author = {Paz, Z.},
  title = {STF Framework — Derivation Strength Tree},
  year = {2026},
  version = {V1.0},
  url = {https://existshappens.com/papers/strength-tree/}
}