What question did this study set out to answer?

The research aims to empirically validate the Warped Information Number (WIN) paradigm against established data across various fields of physics.

February 21, 2026Open Access

Empirical Validation of the Warped Information Number (WIN) Paradigm

Key Points

The research aims to empirically validate the Warped Information Number (WIN) paradigm against established data across various fields of physics.
Conducted nine tests using publicly available datasets across multiple domains.
Followed a uniform protocol for testing predictions from the master theoretical paper.
Employed standard χ2 analysis and Gaussian pull analysis to validate results.
Evaluated relic density and Higgs mass sectors for consistency with existing physics.
WIN framework matches relic density central value with a precision of 0.0σ.
Higgs mass prediction of 125.17 GeV aligns closely with the combined result of 125.10±0.14 GeV.
Eight out of nine tests show WIN model's predictions are consistent, with χ2 < 1.
Tensions observed in three tests against mainstream models indicate potential theoretical discrepancies.

Abstract

This white paper reports a systematic empirical confrontation of the predictions presented inthe master theoretical paper “The Warped Information Number (WIN) Paradigm: A CompleteInformation Theoretic Foundation for Physics” (Preschutti, 2026; https://doi.org/10.5281/zenodo.18676833). All numerical predictions, constants, and mechanisms are taken verbatimfrom that work. The master paper remains a preprint under review.Nine tests were performed using only publicly available datasets as of 18 February 2026,spanning cosmology (DESI DR2 + Planck PR4), collider physics (ATLAS/CMS Higgs combinations, LHCb/Belle-II flavor data), precision measurements (Fermilab Muon g-2, CODATA),structure growth (DES Y6 + KiDS), multi messenger astronomy (NANOGrav 15-yr PTA), andquantum simulation (Quantinuum H2 OTOC releases). Each test followed a uniform protocol:verbatim target prediction from the master paper, public experimental dataset with full covariance or likelihood, standard χ2 and Gaussian pull analysis, and explicit future falsificationthresholds.The relic density sector yields a central value match ΩDMh2 = 0.120 (0.0σ, ∆χ2 = 0.00), aconsistency check with the Planck/DESI central value (prediction frozen pre-DESI DR2, Zenodotimestamp 2025). The Higgs mass sector is addressed via the Measurement Entropy Correction(Axiom 4 of the master paper + rebuttal Section 1.3), yielding 125.17 GeV, which agrees with theATLAS+CMS combined result 125.10±0.14 GeV within 0.5σ. WIN survives eight of the ninetests with χ2 < 1 and no continuous adjustable parameters once the seven axioms are accepted.Three tests show tensions with mainstream models: SM lepton flavor universality (updated2025–2026 combinations), vanilla ΛCDM at 2.6σ (S8), and generic non-chaotic models at 3.5σ.Progress is reported on key acceptance criteria: advancement toward full recovery of established physics (#1), achievement of three independent consistency checks (#3), and convergenceof four experimental lines on the same geometric entropy mechanism (#8). The framework ispresented as a candidate theory under active empirical testing. All results are reproducibleusing only the master paper, its rebuttal statement, and public archives. Future datasets (DESIDR3, HL-LHC, next generation optical clocks, and Higgs factories) will provide decisive tests.This work constitutes the empirical test component of the WIN program; the master theoreticalpaper and rebuttal supply all equation definitions and derivations

Empirical Validation of the Warped Information Number (WIN) Paradigm

Key Points

Abstract

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