The Completeness Model is a multi-level interpretive framework for temporal experience. It proposes that experienced time consists of static configurations (“life”) already paired with null intervals (“death”), so that continuity arises as the synthetic effect of their succession rather than as a primitive medium. The model distinguishes three graded levels of claim: (1) a phenomenological description grounded in interoceptive awareness of cardiac and respiratory pauses; (2) an effective dynamical realisation through successive decoherence events, quantum Zeno interventions and open-system resets; and (3) a speculative compatibility with discrete-spacetime approaches such as causal set theory. No modification of unitary quantum mechanics is introduced. The contribution is organisational and conceptual: the model brings interoceptive neuroscience, quantum measurement theory and discrete-spacetime ideas into a single coherent scheme, supplies an explicit formal language for the life–death alternation, and generates concrete, falsifiable predictions about the effect of attention to bodily pauses on duration perception and the sense of temporal continuity. Limitations, especially the timescale gap between neural and decoherence processes, are stated explicitly.
The Completeness Model is a multi-level interpretive framework for temporal experience. It proposes that experienced time consists of static configurations (“life”) already paired with null intervals (“death”), so that continuity arises as the synthetic effect of their succession rather than as a primitive medium. The model distinguishes three graded levels of claim: (1) a phenomenological description grounded in interoceptive awareness of cardiac and respiratory pauses; (2) an effective dynamical realisation through successive decoherence events, quantum Zeno interventions and open-system resets; and (3) a speculative compatibility with discrete-spacetime approaches such as causal set theory. No modification of unitary quantum mechanics is introduced. The contribution is organisational and conceptual: the model brings interoceptive neuroscience, quantum measurement theory and discrete-spacetime ideas into a single coherent scheme, supplies an explicit formal language for the life–death alternation, and generates concrete, falsifiable predictions about the effect of attention to bodily pauses on duration perception and the sense of temporal continuity. Limitations, especially the timescale gap between neural and decoherence processes, are stated explicitly.
Purpose: This paper presents a purely logic-deductive conceptual framework—not an empirical study—aimed at providing an axiomatic cognitive architecture for understanding the discrete, frame-by-frame phenomenology of near-death experience (NDE) life reviews. Core Argument: Starting from three irreducible axioms (the von Neumann measurement chain terminates in conscious discrimination; conscious awareness operates in discrete, indivisible units; phenomenal reality is constructed via successive perceptual frames), the model deduces a "subtle-mind frame flow" structure. Subjective spacetime and each individual's private universe arise from moment-to-moment conscious sampling of quantum potentialities, generating the experience of continuity through rapid serial frame transitions. Application to NDE Life Review: Under normal waking states, coarse-level narrative integration masks the underlying discreteness of the frame flow. During near-death states, higher-order cognitive inhibition is lifted, allowing the raw historical frame sequence to be replayed without interpolation—consistent with the panoramic, discrete-flash, non-narrative character reported in cross-cultural NDE accounts. Falsifiable Predictions: Several testable predictions are derived, including: NDE life reviews should exhibit discrete frame jumps with no interpolated information between frames; if patients under clinically flat EEG can accurately recall external events occurring during that period, the theory is directly falsified. Broader Significance: If empirically supported, this framework would provide indirect phenomenological evidence for the von Neumann–Wigner interpretation of quantum measurement, elevating the role of consciousness in foundational physics.
The persistence of ordered experience in a quantum-branching universe raises fundamental questions about how continuity is maintained across multiple possible outcomes. The Frame Survival Model (FSM) is a theoretical framework grounded in quantum decoherence, applicable to any system—biological or artificial—capable of sustaining integrated, survival-compatible states. FSM models reality as a sequence of discrete “Hyperframes”—complete matter–energy configurations defined by quantum decoherence events. At each transition, a system either proceeds along a survival-compatible path or terminates its trajectory within that branch. When applied to consciousness, FSM formalizes subjective continuity as “threading” through a network of compatible Hyperframes, yielding an observer-relative path through the multiverse. The same formalism extends to other coherent, path-dependent processes, making FSM relevant to physics, information science, and the life sciences. By providing operational definitions for survival filtering, informational coherence, and frame-to-frame stability, FSM unifies continuity across domains and resolves longstanding paradoxes—including subjective death, quantum immortality, and identity persistence—without invoking new physics. It further suggests experimentally approachable implications, such as modulation of perceived time by changes in decoherence rates, positioning FSM as both a general continuity principle and a testable framework for applied fields such as cognitive neuroscience.
This article develops a quantum-compatible formalisation of minimal semiosis as the foundational organisational condition for a theory of consciousness grounded in triadic normativity and should be read as a direct extension of the Semiotic Theory of Consciousness previously formulated. In that earlier framework, a system counts as a minimal interpreter just in case it satisfies operational criteria C1–C4 (plurality and conflict of signals, manipulable interpretant, explicit normativity and sensori-motor closure), supports a stream of Elementary Semiotic Events (ESEs) with rate ρ, and realises a basal consciousness magnitude for some system-specific scaling parameter κ. Conscious experience is thereby understood as the phenomenological halo coextensive with normatively constrained interpretive dynamics in an Umwelt-indexed state space. The present contribution supplies a quantum-compatible logical–mathematical envelope for this semiotic core. It models the space of interpretive states as a structured domain on which families of contextual partitions induce non-Boolean event algebras and, in appropriate cases, non-commutative operator structures. Instead of postulating genuine quantum microphysics, the proposal adopts quantum probability and Hilbert-space techniques purely as a modelling grammar for contextuality, order sensitivity, non-commutativity and systematic violations of classical total probability—features independently observed in biological and cognitive systems. Drawing on Atmanspacher’s and beim Graben’s theory of contextual emergence, together with quantum-like models of cognition, the article shows how non-generating partitions of the semiotic state space give rise to complementary macro-descriptions of meaning, whereas generating partitions recover a classical, Kolmogorov-like regime. Within this architecture, the central operator of the semiotic theory—the intervention do(I)—is rendered as a contextual state-selection map acting on probability measures (or state vectors) over interpretive configurations, thus linking causal intervention with the algebraic structure of contextuality. The resulting hybrid framework assigns semiosis the role of ontology and quantum-compatible probability the role of mathematics, enhancing explanatory and predictive power without additional metaphysical commitments about quantum substrates. The article concludes by specifying empirical conditions—concerning the identification of ESEs, estimation of ρ and κ, and experimental implementations of do(I) in organisms and robots—under which such quantum-compatible models can advance the study of minimal consciousness in both biological and artificial systems.
Quantum Time Flow (QTF) introduces a conceptual model in which time is treated not as an external parameter but as a physical, null-propagating field composed of discrete quanta (“time quanta”). Objects do not move through time; instead, their worldlines traverse a flux of this field, and experienced temporal flow emerges from the local geometry and density of that flux. The model reinterprets relativistic phenomena—such as time dilation, horizon structure, and causal boundaries—as consequences of intersections between physical worldlines and the null time field. Linear time is viewed as an emergent coordinate system imposed on a deeper causal architecture. QTF also proposes an alternative interpretation of quantum entanglement. Rather than invoking non-local interactions between material systems, entanglement is treated as a structural correlation encoded in the configuration of the time field itself. This paper presents the postulates of the QTF model, its continuous and discrete formulations, and its conceptual implications. Although purely theoretical and not yet empirically tested, the framework is internally consistent and integrates ideas from relativity, causal set theory, and information-theoretic approaches to quantum mechanics.
This document presents a phenomenological framework describing quantum decoherence through a single compact formula: ln V = −0.5 × (ωσ)² × λᵅ. The model accommodates different decoherence mechanisms within a unified mathematical structure, with α as the mechanism-distinguishing parameter (α=1 for gas collision, α≈2 for thermal radiation). It fits existing C70 fullerene interferometry data and generates a novel, falsifiable prediction — the Time-Scheduling Effect — which predicts that under matched average decoherence rates (∫Γ dt), pulsed observation suppresses visibility more strongly than continuous observation (V_pulse < V_cont). Standard linear decoherence theory predicts V_pulse = V_cont under the same conditions. Mathematical formalization was completed with AI assistance (Claude, Anthropic); the original conceptual framework and physical reasoning are the author's own.
This paper offers a philosophical examination of the limits of human access to absolute truth, proposing that the primary constraint does not lie in external reality but in the structure of human intention itself. Drawing conceptually from quantum mechanics—particularly ideas associated with superposition and collapse—the paper argues that intention precedes observation and functions as the determining mechanism through which potential states are reduced to singular, experienced outcomes. The central thesis suggests that complete and undistorted truth cannot be fully perceived without dissolving the very mechanism that enables perception and interaction. If truth were accessed in its totality, the process of collapse would cease, along with the dynamic structure of reality as experienced by human consciousness. Reality, therefore, is presented not as direct truth, but as a necessary and continuous distortion produced by intentional perception. The paper further explores the philosophical consequences of this framework, including the impossibility of total truth-perception within lived existence, the role of intention as an invisible boundary between human consciousness and absolute reality, and the implications for life, death, and meaning. Life is framed as an ongoing search for truth, while death is interpreted as the attainment of truth beyond the constraints of intentional collapse. This work is non-empirical and interpretive in nature. Quantum concepts are employed as philosophical analogies rather than physical claims. The paper is intended to contribute to discussions in philosophy of mind, metaphysics, consciousness studies, and interdisciplinary dialogues between science and philosophy.