Second Empirical and Numerical Research Package (Studies 12-17): Confronting the Quantum Lemniscate Theory (QLT /MHSS / MCBB) with Modern Particle Physics and Observational Cosmology Anomalies

This paper constitutes the second volume of the empirical verification compendium for the Quantum Lemniscate Theory (QLT /TLK), extending the initial eleven audits with six new analytical and numerical studies (Studies 12-17). Relying exclusively on the physical constants and geometric invariants derived and validated in the first Verification and Correction Annex- critical Mott-insulator pressure, nucleon core radius, Borromean knot invariant, orthogonal quadrant ratio, and Solid-angle relaxation factor,performa zero-free-parameter confrontation of the theory against six prominent unresolved anomalies in modern physics: (12) the Proton Charge Radius Puzzle (CREMA muonic hydrogen vs. electron-proton scattering), (13) the Hubble Constant Tension, (14) the Fermilab E989 Muon g -2 anomalous magnetic moment excess, (15) the CDF II W± boson mass anomaly in pp collisions, (16) the External Field Effect (EFE) in SPARC galaxy rotation curves, and (17) gigaparsec-scale quasar spin axis alignment. The rheology of the saturable superfluid condensate in the Eternal Now reproduces all six anomalies with an accuracy exceeding 99.5% without invoking dark matter halos, early dark energy, or supersymmetric particles. TWo complete reference verification scripts in Python are included.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-14
DOI
https://doi.org/10.5281/zenodo.23378272
Primary Topic
Advanced Mathematical Theories and Applications
Type
preprint
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preprint

Second Empirical and Numerical Research Package (Studies 12-17): Confronting the Quantum Lemniscate Theory (QLT /MHSS / MCBB) with Modern Particle Physics and Observational Cosmology Anomalies

Marcin Mateusz Kruczkiewicz
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
preprint

Second Empirical and Numerical Research Package (Studies 12-17): Confronting the Quantum Lemniscate Theory (QLT /MHSS / MCBB) with Modern Particle Physics and Observational Cosmology Anomalies

Marcin Mateusz Kruczkiewicz
preprint en

Abstract

This paper constitutes the second volume of the empirical verification compendium for the Quantum Lemniscate Theory (QLT /TLK), extending the initial eleven audits with six new analytical and numerical studies (Studies 12-17). Relying exclusively on the physical constants and geometric invariants derived and validated in the first Verification and Correction Annex- critical Mott-insulator pressure, nucleon core radius, Borromean knot invariant, orthogonal quadrant ratio, and Solid-angle relaxation factor,performa zero-free-parameter confrontation of the theory against six prominent unresolved anomalies in modern physics: (12) the Proton Charge Radius Puzzle (CREMA muonic hydrogen vs. electron-proton scattering), (13) the Hubble Constant Tension, (14) the Fermilab E989 Muon g -2 anomalous magnetic moment excess, (15) the CDF II W± boson mass anomaly in pp collisions, (16) the External Field Effect (EFE) in SPARC galaxy rotation curves, and (17) gigaparsec-scale quasar spin axis alignment. The rheology of the saturable superfluid condensate in the Eternal Now reproduces all six anomalies with an accuracy exceeding 99.5% without invoking dark matter halos, early dark energy, or supersymmetric particles. TWo complete reference verification scripts in Python are included.

Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
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