Determinacy as Relational Achievement: Symmetry, Constraint, and Individuation in Physics (Quantum Mechanics), Biology (Biosemiotics), and Interactive Formal Systems (Large Language Models)

This manuscript develops a relational, processual ontology in which determinacy is not presupposed as an intrinsic property of objects but emerges through structured processes of symmetry breaking, constraint formation, and synchronization across interacting systems. Challenging classical object-centered ontology and its reliance on efficient causation, the work argues that determinacy, identity, probability, and significance arise as relational achievements. The framework is articulated in general form and then realized across three structurally distinct domains: quantum mechanics, biosemiotics, and large language models. In each case, a pre-individuated field of relational possibility is differentiated through constraint; probability functions non-epistemically as a measure of relational compatibility; and stable identity emerges as a re-enterable regime of coordinated interaction. By demonstrating structural isomorphism across physical, biological, and formal computational systems, the manuscript proposes a unified ontological orientation in which determinacy is understood as the stabilization of constrained relational freedom rather than as the persistence of intrinsic entities.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-16
DOI
https://doi.org/10.5281/zenodo.18671239
Primary Topic
Origins and Evolution of Life
Type
article
Field-Weighted Citation Impact
0.00
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article

Determinacy as Relational Achievement: Symmetry, Constraint, and Individuation in Physics (Quantum Mechanics), Biology (Biosemiotics), and Interactive Formal Systems (Large Language Models)

T. M. Rogers
Zenodo (CERN European Organization for Nuclear Research)
Origins and Evolution of Life
article

Determinacy as Relational Achievement: Symmetry, Constraint, and Individuation in Physics (Quantum Mechanics), Biology (Biosemiotics), and Interactive Formal Systems (Large Language Models)

T. M. Rogers
article en

Abstract

This manuscript develops a relational, processual ontology in which determinacy is not presupposed as an intrinsic property of objects but emerges through structured processes of symmetry breaking, constraint formation, and synchronization across interacting systems. Challenging classical object-centered ontology and its reliance on efficient causation, the work argues that determinacy, identity, probability, and significance arise as relational achievements. The framework is articulated in general form and then realized across three structurally distinct domains: quantum mechanics, biosemiotics, and large language models. In each case, a pre-individuated field of relational possibility is differentiated through constraint; probability functions non-epistemically as a measure of relational compatibility; and stable identity emerges as a re-enterable regime of coordinated interaction. By demonstrating structural isomorphism across physical, biological, and formal computational systems, the manuscript proposes a unified ontological orientation in which determinacy is understood as the stabilization of constrained relational freedom rather than as the persistence of intrinsic entities.

Zenodo (CERN European Organization for Nuclear Research)
University of Toronto (CA)
Peace, Justice and strong institutions
Openalex Percentile: Top 51%
Origins and Evolution of Life
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