Temporal Measure Framework v9 — Step 11: P24 Process Universality and Q40 Atomic Clock Archive Test
ABSTRACTThis document introduces TMF v9 Step 11, extending the Temporal Measure Framework (TMF) established in prior publications (Zenodo DOI: 10.5281/zenodo.20676044). Two advances are presented. First, Postulate P24 (Process Universality of f(t)) makes explicit a structural consequence implicit in the foundational postulates P1, P6, and P13: the temporal density function f(t) is a property of the vacuum manifold Lⁿ and the realized surface T², not of any specific physical system. All physical processes whose rate or duration is governed by the temporal measure dμ = f(t)dt are therefore subject to the same f(t) modulation. Radioactive decay — the empirical basis of prior TMF documents — is the first measured instance of a universal phenomenon, not a privileged case. Second, Open Question Q40 (Atomic Clock Archive Test) derives the primary experimental consequence of P24: atomic transition frequencies should exhibit the same annual modulation as radioactive decay rates, correlated with the Earth–Sun distance cycle, with amplitude ⟨f(t)⟩/f₀ − 1 = 0.001012 ± 0.000504 and phase-locked to perihelion. Modern optical atomic clocks achieve fractional frequency stability of order 10⁻¹⁸, exceeding the predicted signal by fifteen orders of magnitude. Long-duration frequency archives exist at BIPM, NIST, PTB, SYRTE, and in the GPS constellation. PTB (Braunschweig) is identified as the primary test site: it holds both Ra-226 decay rate archives (the Jenkins–Fischbach corpus) and atomic clock frequency archives measured at the same location, enabling a direct cross-process correlation test requiring no new experiment.
Authors
- Leonas Povilaitis
Institutions
- Kauno kolegija Higher Education Institution (LT)
- Kaunas University of Applied Engineering Sciences (LT)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-10-14
- DOI
- https://doi.org/10.5281/zenodo.23367234
- Primary Topic
- Advanced Frequency and Time Standards
- Type
- article
- Field-Weighted Citation Impact
- 0.00