Operational Calculus for Sigma-Time Transforms

This paper develops, positions, and records the reproducibility boundary for the operational-transform layer of Sigma Transform Calculus. A bounded-variation clock σ determines a clock measure µσ and a canonical mass-coordinate selector ισ. The sigma transform of a signal is defined by selecting the signal into mass time and applying the ordinary Laplace kernel there. This converts clock-relative transform questions into mass-coordinate Laplace questions while keeping atoms, flats, endpoint conventions, and convergence domains explicit. The resulting theorem spine proves the transform-domain definition, the mass-coordinate reduction, linearity and boundedness, the sigma-derivative operational rule, the mass-convolution product theorem, a pure-atomic specialization, a bounded-generator evolution/resolvent interface, and a uniqueness boundary. Contribution sentence. The paper packages the sigma transform as a clock-measure operational calculus by reducing it to mass-coordinate Laplace calculus and transporting the resulting identities back to sigma time.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-23
DOI
https://doi.org/10.5281/zenodo.20349537
Primary Topic
Advanced Frequency and Time Standards
Type
preprint
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preprint

Operational Calculus for Sigma-Time Transforms

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

Operational Calculus for Sigma-Time Transforms

Ben F.T. Tibola
preprint en

Abstract

This paper develops, positions, and records the reproducibility boundary for the operational-transform layer of Sigma Transform Calculus. A bounded-variation clock σ determines a clock measure µσ and a canonical mass-coordinate selector ισ. The sigma transform of a signal is defined by selecting the signal into mass time and applying the ordinary Laplace kernel there. This converts clock-relative transform questions into mass-coordinate Laplace questions while keeping atoms, flats, endpoint conventions, and convergence domains explicit. The resulting theorem spine proves the transform-domain definition, the mass-coordinate reduction, linearity and boundedness, the sigma-derivative operational rule, the mass-convolution product theorem, a pure-atomic specialization, a bounded-generator evolution/resolvent interface, and a uniqueness boundary. Contribution sentence. The paper packages the sigma transform as a clock-measure operational calculus by reducing it to mass-coordinate Laplace calculus and transporting the resulting identities back to sigma time.

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