About EXISTS | HAPPENS

The Site

EXISTS | HAPPENS was created in 2026 to host the theoretical framework side of the Selective Transient Field project. The site takes its name from the framework’s core ontological distinction: EXISTS is the frozen, pre-causal state; HAPPENS is the activated, causal state. The threshold between them — the covariant curvature rate n^μ∇_μℛ crossing its critical value — is the physical event the framework is built to explain.

The companion observational site, uhecrtoday.com, covers the UHECR data analysis and the 61.3σ pre-merger correlation that motivated the framework. This site focuses on what that observation implies: a complete theoretical derivation from first principles.

The Researcher

The Framework

The Selective Transient Field (STF) is a ghost-free scalar field coupled to the covariant rate of change of spacetime curvature, n^μ∇_μℛ. It activates only where curvature is changing rapidly and switches off entirely in static spacetime. Starting from four theoretical inputs — General Relativity, ghost-freedom (DHOST Class Ia), cosmological boundary conditions, and 10-dimensional compactification on CICY #7447 — the framework derives its two parameters without any observational input, then extends deterministically across 61 orders of magnitude.

The field mass m_s = 3.94 × 10⁻²³ eV is derived from the cosmological threshold condition 𝒟_crit = 𝒟_GR combined with the Peters formula. The coupling constant ζ/Λ = 1.35 × 10¹¹ m² is derived from 10D Gauss-Bonnet compactification. Both derivation chains are independent and could have disagreed with observation — they agree.

From these two derived parameters, a cascade of zero-parameter predictions follows: the flyby anomaly coefficient K = 2ωR/c (99.99% match); Standard Model particle masses and coupling constants; the galactic rotation scale a₀ = cH₀/(2π); dark energy density Ω_STF ≈ 0.71; the equation of state w = −1 exactly (Phantom Problem theorem); the inflationary tensor-to-scalar ratio r = 0.003–0.005; and the Jarlskog CP-violation invariant from Calabi-Yau geometry.

The retrocausal structure of the field equations — the fact that n^μ∇_μℛ is a directional derivative toward increasing curvature — implies that the field “reaches back” from a merger event. This is not an additional assumption; it is a consequence of the Lagrangian structure. It motivates the framework’s extension into the ontology of time: EXISTS and HAPPENS are not metaphors but the two sides of the field activation threshold.

All Papers

All 32 papers are published in full on this site. The Framework overview explains the logical arc and provides reading paths for every audience.

• 01BackboneSTF First Principles V7.9 — complete derivation from GR and 10D compactification
• 02BackboneComplexified Null Cone V1.0 — geometry of retrocausal activation
• —MathTopological Closure Standalone V6.2 — Heegaard transgression theorem, pure mathematics
• 03BackboneSTF Framework Guide V3.2 — logical arc and reading paths
• 04ConsequenceSTF Theory V2.6 — zero-parameter derivation cascade (hosted at uhecrtoday.com)
• 05ConsequenceSTF Cosmology V5.6 — inflation, dark energy, dark matter, Hubble tension
• 06ConsequenceSM Unification V3.5 — electron mass, proton mass, baryon asymmetry from geometry
• 07ConsequenceThe Energy Problem V0.4 — cosmological constant, dark matter scale
• 08aFlavourBR(Z→μτ) from CICY #7447/Z₁₀ V3 — primary LFV prediction, FCC-ee testable ~2035
• 08bFlavourLepton Mixing and CP Violation V0.3 — θ₁₃ = 8.55°, δ_CP = 84.94°, PMNS from CICY geometry
• 08cFlavourThe Z→μτ Operator V0.1 — loop mechanism and KK spectrum
• 08dFlavourRadiative Lepton Flavour Violation V0.1 — MEG-II probe of generation structure
• 08eFlavourFlavour Sector Experimental Programme V0.1 — five falsification tests
• 08fFlavourThe Cabibbo Angle and CKM Structure V0.1 — θ₁₂ = 14.1° (8% from PDG), CKM CP violation geometric
• 09ConsequenceThe Phantom Problem V0.2 — w = −1 theorem, DESI analysis
• 10TemporalThe Structure of What Happens V3.1 — closed causal loops, ontological necessity of experience
• 11TemporalConsciousness, Time & Identity V3.6 — temporal experience as self-referential structure
• 12TemporalTheory of Time V4.3 — first physically grounded, testable theory of time
• 13TemporalTemporal Cascade V1.0 — pre-temporal stasis and the origin of becoming
• 14TemporalTemporal Workspace V0.5 — quantitative measure of temporal depth
• 15TemporalRetrocausality & Life V0.7 — death as a boundary condition in living systems
• 16ValidationFlyby Anomaly V5.0 — K = 2ωR/c, 12 spacecraft, 99.99%
• 17ValidationTajmar Protocol V3 — rotating superconductors
• 18ValidationLunar Eccentricity V3.1 — 92% match
• 19ValidationSolar Corona V6 — coronal heating modulation
• 20ValidationEarth Core V2
• 21ValidationEnceladus V3 — heat output modulation
• 22ValidationHubble Tension V2 — third path to H₀
• 23ValidationIce Giants V1.2 — Uranus-Neptune heat paradox
• 24ValidationLength-of-Day V1.4 — 8.6-year anomaly
• 25ValidationPulsar Glitches V0.2 — timing modulation
• 26ValidationPhantom Problem DESI V3

For Press and Collaborators

• Framework Overview → Best starting point. The logical arc from first principles to consequences to validations.
• First Principles V7.9 → The backbone paper. Full derivation of m_s and ζ/Λ from GR and 10D compactification. Zero observational input.
• Prediction Registry → 13 quantitative predictions, all zero free parameters, status and source paper for each.
• Plain language introduction → Non-technical overview of the discovery and what it means. Hosted at uhecrtoday.com.
• Contact Z. Paz directly → Media inquiries, collaboration proposals, and questions welcome.

Open Science

All theoretical work is published in full on this site. The companion observational work uses exclusively public data: Pierre Auger Observatory (ADST public release), LIGO/Virgo/KAGRA (GWTC catalogs via GWOSC), and Fermi GBM (4B catalog). No proprietary data was used at any stage.

Validation code (51 Python scripts corresponding to the 51 numbered tests in the observational manuscript) will be published on GitHub with a citable DOI. Independent verification is not just welcomed — it is the point. The data is public, the methods are documented, the results are reproducible.