Theory

The Selective Transient Field

A derivation chain from GR and ghost-freedom to Calabi-Yau geometry and the Jarlskog invariant. Zero free parameters across 60 orders of magnitude.

The Core Idea

The Selective Transient Field (STF) is not a postulated framework — it is a derivation chain. Beginning from GR and ghost-freedom constraints, it derives a unique scalar field Lagrangian with no free parameters, and extends through 10D compactification to arrive at Calabi-Yau geometry and the Jarlskog invariant. Each level is a consequence of the previous one.

The field φ couples not to spacetime curvature itself, but to the rate of change of tidal curvature — nμμℛ. Curvature is large near any massive body. Curvature rate is large only where geometry is changing rapidly: inspiraling binary black holes, the expanding universe, or flyby trajectories. As a result, the STF is selective (activates only in specific dynamical environments) and transient (decays after the event ends). It passes all solar system and pulsar timing tests because it is dormant in static geometries.

The STF does not compete with string theory — it derives the same geometric structures from a more conservative starting point, and shows they are connected by a single chain of consequence. The field that drives the flyby anomaly is the volume modulus of CICY #7447/Z₁₀; the moduli that stabilise the vacuum drive CP violation.

The Derivation Chain

LevelInput / ConstraintOutput
1GR + ghost-freedom (DHOST Class Ia)Unique operator φ(nμμℛ)
2Cosmological boundary conditionms = 3.94×10−23 eV  ·  τ = 3.32 yr
310D compactificationζ/Λ = 1.3×1011 m²  ·  Flyby K validated 99.99%
4φS = volume modulus of CICY #7447/Z₁₀me, mp, ηb, Mc from compactification
5CY moduli + Weil-Petersson curvatureJ = 3.18×10−5 (CP violation; PDG 2023 match)

The Lagrangian

STF = −½(∂μφ)² − ½m²φ² + (ζ/Λ) g(ℛ) φ (nμμℛ) + matter couplings
−½(∂φ)²
Kinetic term — field propagation
½m²φ²
Mass term — m = 3.94 × 10−23 eV, sets oscillation period τ = h/(mc²) = 3.32 yr. Derived from cosmological threshold condition 𝒟crit = 𝒟GR + Peters formula (Section III.D). Historically confirmed by UHECR-GW observation (T = 3.32 ± 0.12 yr) and blind MLE (n = 11/8 → 3.31 yr).
ζ/Λ
Coupling constant ≈ 1.3 × 1011 m². Derived from 10D Gauss-Bonnet compactification (Appendix O). Independently validated by flyby data to 99.99% (Anderson et al. 2008).
g(ℛ)
Dimensionless modulation function; g(ℛ) ≈ 1 for all systems considered.
nμμ
Directional derivative of tidal curvature along the matter worldline — the curvature rate. ℛ is the tidal curvature scalar (Weyl tensor in vacuum, Ricci-based in matter). nμ is the local matter 4-velocity, not a preferred frame.

Mathematical Consistency

What It Predicts

From this Lagrangian, with m from the cosmological threshold condition and ζ/Λ from 10D compactification (both derived from first principles), the STF derives:

DomainPredictionStatus
UHECR timingPre-merger activation at 730 RS (T = 3.32 yr, >5σ)Validated
SpacecraftK = 2ωR/c (99.99% match)Validated
Galaxiesa0 = cH0/(2π)Validated
CosmologyΩSTF = 0.65 ± 0.10Consistent
Particle physicsme, mp, ηb, Mc from 10DValidated
Inflationr = 0.003–0.005Pending (LiteBIRD)
Gravitational wavesδΦ ∝ f6 phase correctionPending (LISA)
SpacecraftVenus K < 0 (retrograde sign flip)Pending (future mission)

View Full Prediction Registry →

What It Does Not Explain

Intellectual honesty requires noting what lies outside the current framework:

Read the Paper

Title: “The Selective Transient Field from First Principles: A Complete Derivation from General Relativity and 10D Compactification”
Author: Z. Paz  ·  ORCID: 0009-0003-1690-3669
Status: Open access  ·  Hosted at existshappens.com

Full Paper at existshappens.com → Technical Summary → Plain Language →