Foundations of Sigma Transform Calculus: Clocks, Observables, Gauge, and Morphisms

Sigma Transform Calculus studies systems whose evolution is driven by a bounded-variation clock rather than by a smooth time parameter alone. Such clocks may have an absolutely continuous component, atomic event mass, and physical-time intervals carrying no clock mass. This paper fixes the foundational interface for the series. It defines the clock measure, the mass-coordinate selector, sigma-adapted trajectories, gauge representatives, physical observables, units, model identifiers, and dictionary-preserving morphisms. The main point is not to prove a particular evolution theorem; it is to make later substitution, derivative, energy, transform, numerical, and PDE results stateable over one stable object language. The paper also records necessity examples showing that selector choices, gauge choices, measurement maps, and data-split rules are mathematical parts of the model identity rather than cosmetic presentation choices.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-21
DOI
https://doi.org/10.5281/zenodo.20319614
Primary Topic
Advanced Frequency and Time Standards
Type
preprint
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preprint

Foundations of Sigma Transform Calculus: Clocks, Observables, Gauge, and Morphisms

Ben F.T. Tibola
Zenodo (CERN European Organization for Nuclear Research)
Advanced Frequency and Time Standards
preprint

Foundations of Sigma Transform Calculus: Clocks, Observables, Gauge, and Morphisms

Ben F.T. Tibola
preprint en

Abstract

Sigma Transform Calculus studies systems whose evolution is driven by a bounded-variation clock rather than by a smooth time parameter alone. Such clocks may have an absolutely continuous component, atomic event mass, and physical-time intervals carrying no clock mass. This paper fixes the foundational interface for the series. It defines the clock measure, the mass-coordinate selector, sigma-adapted trajectories, gauge representatives, physical observables, units, model identifiers, and dictionary-preserving morphisms. The main point is not to prove a particular evolution theorem; it is to make later substitution, derivative, energy, transform, numerical, and PDE results stateable over one stable object language. The paper also records necessity examples showing that selector choices, gauge choices, measurement maps, and data-split rules are mathematical parts of the model identity rather than cosmetic presentation choices.

Zenodo (CERN European Organization for Nuclear Research)
Advanced Frequency and Time Standards
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