This paper presents a non-modal fixation of quantum. Quantum is not treated as probability, uncertainty, or measurement. It is fixed without causality, temporality, or subject-dependent interpretation. The text does not explain quantum. It delimits the conditions under which quantum is fixed. This paper belongs to the Readable Configuration Series I.
This paper presents a non-modal fixation of quantum. Quantum is not treated as probability, uncertainty, or measurement. It is fixed without causality, temporality, or subject-dependent interpretation. The text does not explain quantum. It delimits the conditions under which quantum is fixed. This paper belongs to the Readable Configuration Series I.
The modal interpretation explained here construes the mathematical formalism of quantum mechanics in terms of physical properties (``be-ables,'' ``existents'') in such a way that the property attribution reflects the mathematical structure as much as possible---no additional structure is superimposed on the formalism. We generalize the interpretation by specifying a dynamics of physical properties, and also extend it while replying to recent objections by Albert and Loewer 2 [Proceedings of the 1990 Biennial Meeting of the Philosophy of Science Association, edited by A. Fine, M. Forbes, and L. Wessels (Philosophy of Science Association, East Lansing, MI, 1990), Vol. 1, p. 277], and by Elby [Found. Phys. Lett. 6, 5 (1993)]. I also discuss questions relating to relativistic aspects and casuality.
This work re-examines the long-standing interpretation problems of quantum mechanics—measurement, collapse, probability, irreversibility, the observer, and entanglement—not by proposing a new physical theory, but by relocating the structure of the questionsthat have framed these problems. The paper argues that many interpretational tensions arise not from the formalism itself,but from how concepts such as measurement, state, time, and probability have beenpositioned within the explanatory structure. Measurement is treated not as a privilegedphysical event, but as a structural condition associated with record formation.Collapse is interpreted as the unavoidable fixation of perspective once such records exist,rather than as a dynamical process added to the theory. Time is relocated from a global background parameter to a local phenomenon that appearsonly while interactions remain unresolved. Irreversibility is accordingly understoodnot as a fundamental temporal direction, but as the closure of a perspective.Probability is reinterpreted not as future uncertainty or intrinsic randomness,but as a structural summary of how multiple interactions close in the present. The observer is not treated as an external subject or agent, but as a boundary positionat which correlations between system and environment become fixed.Entanglement is understood not as nonlocal influence, but as the manifestation ofan indivisible whole structure that cannot be decomposed into independent parts. This work does not modify the mathematical formalism or predictive success of quantum mechanics.Instead, it constrains the interpretational space by showing how different questionsabout the same formal results generate persistent disagreement.The contribution is therefore conceptual rather than predictive,and is intended as a foundation for further discussion in quantum foundationsand phase-based theoretical frameworks.
In this article we discuss the contextual character of quantum mechanics in the framework of modal interpretations. We investigate its historical origin and relate contemporary modal interpretations to those proposed by M. Born and W. Heisenberg. We present then a general characterization of what we consider to be a modal interpretation. Following previous papers in which we have introduced modalities in the Kochen-Specker theorem, we investigate the consequences of these theorems in relation to the modal interpretations of quantum mechanics.
During many years since the birth of quantum mechanics, instrumentalist interpretations prevailed: the meaning of the theory was expressed in terms of measurements results. However, in the last decades, several attempts to interpret it from a realist viewpoint have been proposed. Among them, modal interpretations supply a realist non-collapse account, according to which the system always has definite properties and the quantum state represents possibilities, not actualities. But the traditional modal interpretations faced some conceptual problems when addressing imperfect measurements. The modal-Hamiltonian interpretation, on the contrary, proved to be able to supply an adequate account of the measurement problem, both in its ideal and its non-ideal versions. Moreover, in the non-ideal case, it gives a precise criterion to distinguish between reliable and non-reliable measurements. Nevertheless, that criterion depends on the particular state of the measured system, and this might be considered as a shortcoming of the proposal. In fact, one could ask for a criterion of reliability that does not depend on the features of what is measured but only on the properties of the measurement device. The aim of this article is precisely to supply such a criterion: we will adopt an informational perspective for this purpose.During many years since the birth of quantum mechanics, instrumentalistinterpretations prevailed: the meaning of the theory was expressed in terms of measurementsresults. However, in the last decades, several attempts to interpret it from a realist viewpointhave been proposed. Among them, modal interpretations supply a realist non-collapseaccount, according to which the system always has definite properties and the quantum staterepresents possibilities, not actualities. But the traditional modal interpretations faced someconceptual problems when addressing imperfect measurements. The modal-Hamiltonianinterpretation, on the contrary, proved to be able to supply an adequate account of themeasurement problem, both in its ideal and its non-ideal versions. Moreover, in the non-idealcase, it gives a precise criterion to distinguish between reliable and non-reliable measurements.Nevertheless, that criterion depends on the particular state of the measured system, and thismight be considered as a shortcoming of the proposal. In fact, one could ask for a criterionof reliability that does not depend on the features of what is measured but only on theproperties of the measurement device. The aim of this article is precisely to supply such acriterion: we will adopt an informational perspective for this purpose.
Holographic Information Ontological Framework: Probability II (HIOF P-II) Not Probability: Conceptual Engineering of Classical Probability and Quantum Docking This is a short, non-technical companion to the 8-paper HIOF P-II series (Papers 0 to VII). It is written for readers in physics, philosophy of science, or statistics, not for readers already familiar with the author's wider framework. The core idea, stated plainly The series asks when the word probability may be used. It reserves the word for a classical probability layer in which four conditions hold: a sample space is given before outcomes are examined; every read-out under discussion is a function on that one space; the space does not depend on the means used to reveal outcomes; and each preparation fixes a definite measure. This qualification belongs to a window, the family of measurements that present capacity can manifest. Quantum docking and docking weights A docking is a relation among a system, an interference end (instruments, couplings, records) and a docking arrangement. The range of marks that can become manifest, the manifest margin, is produced by that relation. The numbers given by the Born rule are called docking weights. Every standard computation is kept. A term-swap test confirms that replacing the word changes no value or equation. Where qualification holds and where it fails Compatible read-outs, coarse-grained classical windows and the single-photon polarisation family have a common representation. Windows with Bell-type settings or Kochen-Specker-type configurations have none under stated premises (local causality, setting independence, non-contextuality). Models that give up a premise supply a space that depends on the settings. Windows, chains and consciousness Windows are compared by statistical post-processing. A chain from instrument to person to group combines channels, which only lose information, with selection, which also distorts the source. Consensus needs a non-trivial common read-out. Uncertainty that cannot be repeated is called window-relative uncertainty, not probability. Conscious knowing is treated as uptake after docking, never as part of it. Potential, determinism and consensus Potential is the inheritance of conditions of formation, not a table of stored answers. A deterministic generation rule and classical qualification are independent questions, shown with Schrodinger's unpublished hidden-variable model (a preprint, not yet peer reviewed). Coupling, transaction and consensus are kept as three separate layers. What the series covers Paper 0: the right to use probability (series introduction) Paper I: classical probability, boundaries precede means Paper II: quantum docking Paper III: inside the system: windows, comparability, window chains, exclusion Paper IV: non-transactional quantum: coupling, transaction, consensus Paper V: determinism is not probability Paper VI: Born weights are not probabilities Paper VII: reality as manifestation, with a worked comparison of two windows What the series does not do It does not change the Born rule, add new dynamics, decide between interpretations of quantum mechanics, or claim that space is discrete or continuous. Whether the universe is deterministic is left open. A note on method Each paper states its premises, its scope and its test points. The naming discipline is a terminological proposal, not a theorem of probability theory. Readers are encouraged to treat the proposals as testable hypotheses, not as settled fact. All papers are Version 1.0. Keywords: probability, sample space, common representation, quantum docking, docking weight, observer window, Born rule, Bell inequalities, Kochen-Specker theorem, contextuality, philosophy of physics Author Wai-Hung Tam (Pan), Independent Researcher ORCID: 0009-0002-7789-8464 Email: panxtam@protonmail.com