Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Ontological Stratification by Coordinate Persistence Duration (Condensed Version)

francois Grimonprez

Published Jan 16, 2026• 0 citations
Publisher

Abstract

*This manuscript is a condensed version (approximately 50%) of the extended paper “Ontological Stratification by Coordinate Persistence Duration: A Non-Arbitrary Framework for the Quantum–Classical Transition”. The present version focuses on the core conceptual framework and the ontological role of temporal persistence, and is intended as a more accessible entry point. The extended version is available separately.*

DOI
10.5281/zenodo.18272408

Related papers

Topological Ontology of Quantum Interference: Spectral Gap, Instanton Transitions, and Limits of Expressibility in a Discrete Substrate Version 5.0 (Final) An Ontological Framework and Methodological Tool for the Analysis of Spectral Transitions in Quantum Systems

Vladimir Veselov

•Aug 7, 2026•0 citations

Ontological Stratification by Coordinate Persistence Duration: A Non-Arbitrary Framework for the Quantum- Classical Transition

francois Grimonprez

This preprint proposes an intrinsic, observer-independent criterion for the quantum–classical transition based on temporal persistence of spatial coordinates. Classicality is defined by non-null duration of coordinate existence rather than spatial definiteness, reframing the transition as ontological stratification by duration. The framework is compatible with standard quantum mechanics and connects naturally with the path integral formulation.

•Jan 12, 2026•0 citations

From Electron-Clouds to Causal-Clouds :A CCC Reconstruction of Projection-Compressed Observability and Emergent Observable Time

Jimmy Chen

This work develops a condensed post-V6 reconstruction branch within Causal Cloud Cosmology (CCC). Rather than introducing a new ontology or replacing established physics, the manuscript reconstructs observability through the conceptual bridge connecting the electron cloud and the causal cloud. The work begins from a familiar quantum intuition: observable localization is not necessarily a permanently fixed object structure, but may instead emerge through constrained accessibility, interaction, realization, and projection-compressed manifestation. CCC extends this intuition toward cosmological observability through the accumulated structural field: C = C(x,T) where x denotes observable-regime accessibility coordinates and T denotes accumulated structural persistence. Observable reality is reconstructed as a projection-compressed residual: R_obs(x,t) = Pi_c[C(x,T)] Observable time is further reconstructed as projection-constrained observable ordering: t_obs = Pi_c(T) Within this framework, observable temporal flow is interpreted not as an independently flowing absolute background, but as accessibility-ordered residual manifestation emerging under constrained observability. The manuscript develops a conservative CCC-native reconstruction linking: Electron Cloud→ Localization Accessibility→ Projection Compression→ Observable Residual→ Emergent Observable Ordering→ Causal-Cloud Continuity. The framework preserves the empirical roles of established theories: General Relativity describes observable spacetime geometry and relativistic ordering. Quantum Mechanics predicts observable manifestation, localization, and measurement behavior. CCC provides an interpretive layer for accumulated structural persistence, projection-compressed observability, residual continuity, and emergent observable ordering. The work further incorporates nonlinear accumulated structural persistence, natural T^2-like pairwise scaling, residual coherence persistence, and observable-certification diagnostics including RCI and SCS. The manuscript does not claim final unification, replacement of modern physics, or proof of hidden ontology. Instead, it proposes a CCC reconstruction in which observable reality may emerge as accessibility-limited residual ordering within accumulated causal-cloud continuity. This paper serves as a condensed bridge reconstruction following CCC V6.1, focusing specifically on observability, accessibility, emergent observable time, and causal continuity across quantum and cosmological scales.

•May 28, 2026•2 citations

Quantum mechanics and ontology

Steven Todd Bannard

Bibliography: p. 93-95.

•Jan 1, 2001•0 citations

An Ontological Perspective on the Properties of Quantum Mechanics and Spacetime: Introduction to the Theory of Identity and Synchronicity

Młynarski, Kajetan

•Jan 1, 2025•0 citations

Consciousness as a Recoverable Informational Sector in Stabilizer Quantum Gravity

George Mallis

This paper explores consciousness as a higher-order informational sector within the broader Stabilizer Quantum Gravity (SQG) framework. The central idea is not to treat consciousness as a primitive ontological ingredient of physics, but as a special class of recoverable, integrated, temporally ordered informational organization arising within a deeper operator-algebraic substrate. In this sense, the manuscript is an extension of SQG rather than part of its minimal physical core. The framework investigates conditions under which a subsystem may qualify as conscious in structural terms, including:- recoverable integration across informational channels,- internally accessible state-organization,- persistence through time,- temporal ordering and self-consistency,- and the distinction between mere information processing and unified informational subjectivity. The manuscript is intended as a structured theoretical exploration at the interface of consciousness studies, quantum information, operator algebras, and emergent-structure frameworks. It does not claim a closed solution to the hard problem of consciousness, but proposes a mathematically guided route for embedding consciousness-related criteria within a broader informational-physical architecture. Status note:This work should be read as a higher-layer conceptual extension of SQG, not as a foundational replacement of the core physical framework.

•Mar 15, 2026•0 citations
This manuscript is a condensed version (approximately 50%) of the extended paper “Ontological Stratification by Coordinate Persistence Duration: A Non-Arbitrary Framework for the Quantum–Classical Transition”. The present version focuses on the core conceptual framework and the ontological role of temporal persistence, and is intended as a more accessible entry point. The extended version is available separately.
This work develops a condensed post-V6 reconstruction branch within Causal Cloud Cosmology (CCC). Rather than introducing a new ontology or replacing established physics, the manuscript reconstructs observability through the conceptual bridge connecting the electron cloud and the causal cloud. The work begins from a familiar quantum intuition: observable localization is not necessarily a permanently fixed object structure, but may instead emerge through constrained accessibility, interaction, realization, and projection-compressed manifestation. CCC extends this intuition toward cosmological observability through the accumulated structural field: C = C(x,T) where x denotes observable-regime accessibility coordinates and T denotes accumulated structural persistence. Observable reality is reconstructed as a projection-compressed residual: R_obs(x,t) = Pi_c[C(x,T)] Observable time is further reconstructed as projection-constrained observable ordering: t_obs = Pi_c(T) Within this framework, observable temporal flow is interpreted not as an independently flowing absolute background, but as accessibility-ordered residual manifestation emerging under constrained observability. The manuscript develops a conservative CCC-native reconstruction linking: Electron Cloud→ Localization Accessibility→ Projection Compression→ Observable Residual→ Emergent Observable Ordering→ Causal-Cloud Continuity. The framework preserves the empirical roles of established theories: General Relativity describes observable spacetime geometry and relativistic ordering. Quantum Mechanics predicts observable manifestation, localization, and measurement behavior. CCC provides an interpretive layer for accumulated structural persistence, projection-compressed observability, residual continuity, and emergent observable ordering. The work further incorporates nonlinear accumulated structural persistence, natural T^2-like pairwise scaling, residual coherence persistence, and observable-certification diagnostics including RCI and SCS. The manuscript does not claim final unification, replacement of modern physics, or proof of hidden ontology. Instead, it proposes a CCC reconstruction in which observable reality may emerge as accessibility-limited residual ordering within accumulated causal-cloud continuity. This paper serves as a condensed bridge reconstruction following CCC V6.1, focusing specifically on observability, accessibility, emergent observable time, and causal continuity across quantum and cosmological scales.
This paper explores consciousness as a higher-order informational sector within the broader Stabilizer Quantum Gravity (SQG) framework. The central idea is not to treat consciousness as a primitive ontological ingredient of physics, but as a special class of recoverable, integrated, temporally ordered informational organization arising within a deeper operator-algebraic substrate. In this sense, the manuscript is an extension of SQG rather than part of its minimal physical core. The framework investigates conditions under which a subsystem may qualify as conscious in structural terms, including:- recoverable integration across informational channels,- internally accessible state-organization,- persistence through time,- temporal ordering and self-consistency,- and the distinction between mere information processing and unified informational subjectivity. The manuscript is intended as a structured theoretical exploration at the interface of consciousness studies, quantum information, operator algebras, and emergent-structure frameworks. It does not claim a closed solution to the hard problem of consciousness, but proposes a mathematically guided route for embedding consciousness-related criteria within a broader informational-physical architecture. Status note:This work should be read as a higher-layer conceptual extension of SQG, not as a foundational replacement of the core physical framework.