The Gluvić Constant and Static Vibrational Reality: Persistent Signals Across Independent Datasets

This work introduces the Gluvić constant (Ω_G ≈ 31 nHz) within the framework of Static Vibrational Reality (SVR), a proposed universal frequency that links mass–energy to oscillatory motion through the relation mc² = ħ Ω_G. A broad set of independent datasets—including supernovae (Pantheon+), cosmic chronometers, BAO consensus tables, optical clock networks, gravitational-wave ringdowns, and pulsar timing arrays—consistently exhibit recurring oscillatory signatures near Ω_G. Robustness checks (bootstrap, jackknife, random-phase nulls, seasonal nuisance modeling, and control frequencies) repeatedly distinguish Ω_G from statistical fluctuations or simple systematics. While each dataset alone remains preliminary, the key feature is the persistence of Ω_G across independent probes: no analysis has yet produced a decisive refutation. The results highlight Ω_G as a serious candidate for a new fundamental constant of nature. This article is published as a call to action: further dedicated tests by optical clock collaborations, PTA consortia, and gravitational-wave observatories are required to confirm or refute the hypothesis.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-29
DOI
https://doi.org/10.5281/zenodo.17222215
Primary Topic
Education, Psychology, and Social Research
Type
article
Field-Weighted Citation Impact
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article

The Gluvić Constant and Static Vibrational Reality: Persistent Signals Across Independent Datasets

Zenodo (CERN European Organization for Nuclear Research)
Education, Psychology, and Social Research
article

The Gluvić Constant and Static Vibrational Reality: Persistent Signals Across Independent Datasets

article en

Abstract

This work introduces the Gluvić constant (Ω_G ≈ 31 nHz) within the framework of Static Vibrational Reality (SVR), a proposed universal frequency that links mass–energy to oscillatory motion through the relation mc² = ħ Ω_G. A broad set of independent datasets—including supernovae (Pantheon+), cosmic chronometers, BAO consensus tables, optical clock networks, gravitational-wave ringdowns, and pulsar timing arrays—consistently exhibit recurring oscillatory signatures near Ω_G. Robustness checks (bootstrap, jackknife, random-phase nulls, seasonal nuisance modeling, and control frequencies) repeatedly distinguish Ω_G from statistical fluctuations or simple systematics. While each dataset alone remains preliminary, the key feature is the persistence of Ω_G across independent probes: no analysis has yet produced a decisive refutation. The results highlight Ω_G as a serious candidate for a new fundamental constant of nature. This article is published as a call to action: further dedicated tests by optical clock collaborations, PTA consortia, and gravitational-wave observatories are required to confirm or refute the hypothesis.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 36%
Education, Psychology, and Social Research
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