Empirical Validation of the Warped Information Number (WIN) Paradigm

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