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Process–Event Resolution of Entanglement and Bell-Type Constraints (Foundational Technical Note)

Jadran Damjanović

Published Jan 7, 2026• 0 citations
Publisher

Abstract

This foundational technical note establishes the ontological and operational groundwork for a series of works on process–event distinctions in quantum theory. It clarifies the domain of applicability of Bell-type constraints, EPR correlations, and entanglement without modifying quantum formalism or introducing new dynamics.
DOI
10.5281/zenodo.18169813

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This work continues and consolidates a series of conceptual papers developed over an extended period, aimed at clarifying the physical domain of validity of quantum theory. Rather than presenting a new interpretation or extending the formalism, the present contribution serves as a unifying and delimiting statement. It explicitly formulates what quantum theory does not permit to be physically asserted when its formal descriptions are applied beyond conditions of realization. The motivation for publishing this work at this stage is to provide a coherent and self-contained articulation of the process–event constraint that has been developed across earlier discussions, drafts, and case analyses. Several examples—most notably from chemical bonding and spectroscopy—are included here in a compact and finalized form, not as an expansion of scope, but as confirmation that the framework applies consistently beyond abstract foundational scenarios. This manuscript is intended as a stable reference point that closes a conceptual loop, rather than as an open-ended extension of the series.
This is the fourth paper in a series developing a process–event framework for the physical applicability of quantum theory. Building on earlier papers that introduced a minimal event threshold (Article I), resolved black-body divergences via domain restriction (Article II), and clarified the conditional role of conservation laws (Article III), this work addresses three foundational quantum elements: Planck’s relation, Born’s rule, and EPR correlations. The central claim is operational rather than interpretational: standard quantum postulates can be consistently understood as conditions for the realization of physical events, not as ontological statements about discreteness or nonlocal causation. Quantum theory is treated as a theory of continuous processes whose physical relevance emerges only when a minimal threshold of duration, action, and irreversible registration is crossed. Planck’s constant is interpreted as an empirical scale delimiting event realization, Born’s rule as a process-to-event closure under measurement, and EPR correlations as correlations between local events arising from a single global process. No modification of the quantum formalism or its predictions is proposed.
This paper introduces the concept of a resonant event threshold as a physical criterion delimiting the domain of validity of quantum descriptions. The central claim is that quantum formalism applies to physical processes only within regimes where energy, time, and coherence jointly permit the realization of an event. Outside this domain, quantum states remain processual and non-realized, and quantities such as outcomes, probabilities, or information lack physical meaning. The proposed threshold, expressed schematically as νΔt ≳ 1 (with ν a characteristic frequency and Δt an effective coherence/interaction time), is not a new dynamical law but a condition of applicability: it specifies when a quantum description corresponds to a realizable physical event. This work serves as a foundational element of a broader series developing a process–event framework for quantum theory, clarifying the status of collapse, information, and measurement without modifying standard quantum formalism.