About This Site

About UHECR Today

UHECR Today is the open-access publication home of the Selective Transient Field framework — fourteen papers connecting the origin of ultra-high-energy cosmic rays to Standard Model constants, dark energy, and the physics of time.

The Site

UHECR Today started in 2023 as an educational resource on ultra-high-energy cosmic ray science — making public data, detection methods, and open research problems accessible to students and physicists alike. The site evolved into a research publication hub when the STF discovery emerged from that data in 2025.

Today the site serves two roles: a public science resource covering UHECR physics broadly, and the primary open-access home for the Selective Transient Field framework. All papers are published here in full and freely accessible. All data used is public. All methods are documented.

The Researcher

Z. Paz
The Hague, Netherlands
ORCID 0009-0003-1690-3669

The Discovery and Framework

In 2025, analysis of public data from the Pierre Auger Observatory (494 UHECRs), Fermi GBM (3,545 gamma-ray bursts), and LIGO/Virgo/KAGRA (199 gravitational wave events) revealed that ultra-high-energy cosmic rays arrive before gravitational wave mergers — not after, as every existing model predicted. The correlation stands at 61.3σ across 10,117 pairs. It is matter-independent: binary black holes, which contain no baryonic matter and cannot produce conventional jets, show the same signal as neutron star systems. This rules out every astrophysical acceleration mechanism and points to a geometric coupling to spacetime dynamics.

The Selective Transient Field (STF) was derived to explain this: a ghost-free scalar field coupled to the rate of change of spacetime curvature, nμμℛ. Starting from four theoretical inputs — General Relativity, ghost-freedom, cosmological boundary conditions, and 10-dimensional compactification — the framework derives its own parameters without observational input, then extends deterministically across 61 orders of magnitude.

61.3σCore correlation
0Free parameters
14Papers
18Problems unified
61Orders of magnitude
99.5%Avg SM accuracy

The framework grew from the founding observation into a cascade of derived results: Standard Model particle masses and coupling constants from 10D compactification geometry; dark energy (ΩSTF ≈ 0.71) from the field’s residual potential; galactic rotation curves without dark matter particles; the inflationary spectral index ns = 0.963; the Jarlskog CP-violation invariant; and — following the retrocausal structure of the field equations — a physically grounded, empirically testable theory of time and temporal experience.

The two derivation routes to the dark energy density (Ω = 0.65 ± 0.10 via compactification in V7.0; Ω = 0.71 via equilibrium analysis in Cosmology V5.6) are complementary, not competing — two independent paths converging on the same observable, each strengthening the other. This is a recurring pattern in the framework: independent derivations that could have disagreed, agreeing.

All Papers

All fourteen papers are published in full on this site. The concept DOI 10.5281/zenodo.17526550 provides a persistent citation anchor. The Framework Guide explains the logical arc, the three-path convergence, and reading paths for every audience.

Persistent Citation DOI https://doi.org/10.5281/zenodo.17526550  —  resolves to the primary paper record on Zenodo. Individual DOIs for each paper will be assigned upon repository resubmission.

For Press and Collaborators

Open Science

All research 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) will be published on GitHub with a citable DOI via Zenodo’s GitHub integration. Independent verification is not just welcomed — it is the point. The data is public, the methods are documented, and the results are reproducible.

This site is built as a static site hosted on Netlify. All paper content is maintained in version-controlled Markdown and converted to HTML. Every paper page includes a BibTeX citation block and Schema.org structured data for Google Scholar indexing.