Erratum: Earth-Bound Curvature Duplication in Actualization Function Applications

This brief erratum addresses a unique duplication anomaly in the application of the Actualization Function (AF) under Earth-bound experimental conditions. During earlier work involving timing corrections and decay modeling, it was discovered that curvature-based suppression was being accounted for twice in Earth-based scenarios—first in the AF calibration, and again through environmental suppression terms. This double-counting led to a minor but measurable deviation in predicted results, particularly in high-sensitivity systems like meson decay modeling and GNSS timing filters. By adjusting the AF for a single curvature suppression term in Earth-based contexts (while leaving off-planet and deep-space applications unchanged), the model is brought into full alignment with experimental datasets. This erratum confirms the theoretical consistency and empirical robustness of the AF framework and is offered as an amendment to the original publication:DOI: 10.5281/zenodo.15166790 Note to the Editor Dear Curators, Please find attached a short erratum addressing a specific anomaly discovered in our prior publication on the Actualization Function (AF). We identified a context-specific duplication of curvature suppression terms that occurs only in Earth-bound calculations. This clarification does not alter the original model but strengthens its empirical precision. The erratum includes a corrected comparison using D meson decay data and a full explanation of why this adjustment applies solely to Earth-situated experiments. No changes are required for space-based or quantum-level applications beyond Earth. This ensures consistency with the original work while improving its precision and scientific clarity. We respectfully submit this erratum as a transparent contribution to continued theoretical refinement. Warm regards,Emil A. McKellarIndependent ResearcherEmail: [email protected]

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-04-08
DOI
https://doi.org/10.5281/zenodo.15175793
Primary Topic
Pulsars and Gravitational Waves Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Erratum: Earth-Bound Curvature Duplication in Actualization Function Applications

Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
article

Erratum: Earth-Bound Curvature Duplication in Actualization Function Applications

article en

Abstract

This brief erratum addresses a unique duplication anomaly in the application of the Actualization Function (AF) under Earth-bound experimental conditions. During earlier work involving timing corrections and decay modeling, it was discovered that curvature-based suppression was being accounted for twice in Earth-based scenarios—first in the AF calibration, and again through environmental suppression terms. This double-counting led to a minor but measurable deviation in predicted results, particularly in high-sensitivity systems like meson decay modeling and GNSS timing filters. By adjusting the AF for a single curvature suppression term in Earth-based contexts (while leaving off-planet and deep-space applications unchanged), the model is brought into full alignment with experimental datasets. This erratum confirms the theoretical consistency and empirical robustness of the AF framework and is offered as an amendment to the original publication:DOI: 10.5281/zenodo.15166790 Note to the Editor Dear Curators, Please find attached a short erratum addressing a specific anomaly discovered in our prior publication on the Actualization Function (AF). We identified a context-specific duplication of curvature suppression terms that occurs only in Earth-bound calculations. This clarification does not alter the original model but strengthens its empirical precision. The erratum includes a corrected comparison using D meson decay data and a full explanation of why this adjustment applies solely to Earth-situated experiments. No changes are required for space-based or quantum-level applications beyond Earth. This ensures consistency with the original work while improving its precision and scientific clarity. We respectfully submit this erratum as a transparent contribution to continued theoretical refinement. Warm regards,Emil A. McKellarIndependent ResearcherEmail: [email protected]

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 61%
Pulsars and Gravitational Waves Research
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