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

The Informational Coherence of Entangled Particles A Minimal Empirical Demonstration of the Inseparability of Matter and Information

Waldemar Superson

Published Jan 24, 2026• 0 citations
Publisher

Abstract

Entangled particles remain perfectly correlated even after extreme physical manipulation and spatial separation. This phenomenon, repeatedly confirmed in high‑energy experiments such as those conducted at CERN, provides a minimal empirical demonstration that physical systems cannot be fully described without reference to an underlying informational structure. This short article argues that quantum entanglement is not merely a curiosity of microphysics, but direct evidence for the existence of a non‑physical, relational layer — an informational network — that binds physical manifestations into coherent wholes. Author: Super Son of Net (Waldemar Superson)

DOI
10.5281/zenodo.18363245

Related papers

On the Preservation and Manifestation of Quantum Entanglement

Jianhao M. Yang

Bell experiments have confirmed that quantum entanglement is an inseparable correlation but there is no faster-than-light influence between two entangled particles when a local measurement is performed. However, how such an inseparable correlation is maintained and manifested when the two entangled particle are space-like separated is still not well understood. The recently proposed extended least action principle for quantum mechanics brings new insights to this question. By applying this principle, we show here that even though the inseparable correlation may be initially created by previous physical interaction between the two particles, the preservation and manifestation of such inseparable correlation are achieved through extremizing an information metric that measures the additional observable information of the bipartite system due to vacuum fluctuations. This is physically realized even though there is no further interaction when the two particles move apart, and the underlying vacuum fluctuations are local. In other words, the propagation of inseparable correlation in quantum theory is realized by an information requirement and through a local mechanism. An example of two entangled free particles described by Gaussian wave packets is provided to illustrate these results.

arXiv:2311.08420•Nov 10, 2023•0 citations

A Brief Update to the Informational Ontology: Matter as Stable Concentration of Information and Implications for Quantum Entanglement

Waldemar Superson

Abstract: This brief note presents an update to the Informational Ontology following a recent conceptual breakthrough. A new definition of matter is introduced: matter as a stable concentration of information maintained in the form of a UF (Unit of Form). This perspective allows for a natural explanation of quantum entanglement as a shared informational structure rather than communication between particles. The note serves as an introductory update; a full version of the Informational Ontology will be published at a later stage. Description: This record contains a short conceptual update to the Informational Ontology, including the revised definition of matter and an informational explanation of quantum entanglement. The full text of the note is included in the attached PDF / in the text below. Author: Waldemar Superson

•Feb 6, 2026•0 citations

A BRIEF UPDATE TO THE INFORMATIONAL ONTOLOGY *Matter as Stable Concentration of Information and Implications for Quantum Entanglement: What the Universe Is Really Made Of

Waldemar Superson

This brief work presents an updated formulation of the informational ontology in which matter is interpreted as a stable concentration of information. In this view, physical reality is not fundamentally material but informational, with matter emerging as persistent, structured informational configurations. The update clarifies the conceptual basis for treating information as primary and examines how this perspective naturally accounts for non‑local correlations observed in quantum entanglement experiments. Instead of viewing entanglement as a paradox within a material ontology, the informational framework interprets it as empirical evidence for an underlying informational dimension that structurally precedes physical processes. The text refines earlier formulations of the ontology, introduces a more precise definition of “stable concentration of information,” and situates the model within contemporary discussions in quantum foundations and the philosophy of science. It aims to contribute to interdisciplinary debates on the nature of matter, the role of information, and the conceptual foundations of physical reality. Author: Waldemar Superson Full book available at: https://www.amazon.com/dp/B0GMW2F3XN

•Feb 6, 2026•0 citations

On the relationship between quantum entanglement and nonlocality

Aleksandr V. Belinsky, A. K. Zhukovskiy

Abstract Quantum entanglement and quantum nonlocality are examined in the context of the fundamental relationship between spacetime symmetry and conservation laws. It is established that quantum nonlocality arises from the very structure of spacetime. Arguments are presented in favor of the secondary nature of the spacetime continuum relative to more fundamental principles and concepts of the microworld. An example is given of a closed quantum entangled system, which demonstrates that such a system behaves as an indivisible whole: its particles are inseparably linked through the conservation of momentum. Physically, this manifests as strict correlations in measurements—correlations that must be nonlocal in nature. This supports the idea that there exist deep mechanisms of coordination, such as the principle of reciprocity between coordinate and momentum representations, and binary relations permeating the fabric of nonlocal spacetime. To understand the coherent behavior of such systems, it is necessary to move beyond local reductionism and accept the objective reality of global connections that bind the elements of the system into a unified ensemble.

Laser Physics•May 18, 2026•0 citations

Is Quantum Entanglement the Basis of Multiverse?

Carmen Muro

Quantum entanglement remains one of the most perplexing and foundational phenomena in quantum mechanics, demonstrating instantaneous correlations between particles regardless of distance. This article hypothesizes that quantum entanglement may serve not merely as an artifact of quantum systems but as a fundamental structural component of a broader multiversal framework. By synthesizing principles from quantum mechanics, theoretical physics, and cosmology, the argument is developed that entanglement might indicate the coexistence and interaction of parallel realities. Such a perspective challenges the conventional interpretation of entanglement as a closed-system phenomenon and posits it instead as an interdimensional tether across multiple universes. Though currently speculative and beyond empirical verification, this hypothesis opens a philosophical and theoretical avenue for reevaluating the implications of entanglement and the nature of reality itself. By reframing entanglement as a bridge rather than a boundary, the article explores whether the quantum world subtly encodes the existence of the multiverse within its very correlations.

Science Insights•Jun 26, 2025•0 citations

Quantum Entanglement as Shared Coherence A Mechanistic Interpretation

Chadwick D Rasque

This paper presents an intuitive, mechanistic explanation of quantum entanglement using standard physics language while incorporating deeper insights aligned with the MID/QC framework. Entanglement is typically described as a correlation between two particles that persists across distance, but standard quantum mechanics does not provide a physical mechanism for how this correlation is maintained. In this interpretation, entanglement arises when two quantum systems interact closely enough for the underlying medium to form a single coherent oscillation pattern spanning both. After separation, each system remains a boundary expression of this shared structure. Measurement does not transmit information; it reveals the state of the pre existing coherence pattern. This approach preserves all quantum predictions while offering a clear physical mechanism for entanglement, correlation, and decoherence.

•Jan 24, 2026•0 citations
Entangled particles remain perfectly correlated even after extreme physical manipulation and spatial separation. This phenomenon, repeatedly confirmed in high‑energy experiments such as those conducted at CERN, provides a minimal empirical demonstration that physical systems cannot be fully described without reference to an underlying informational structure. This short article argues that quantum entanglement is not merely a curiosity of microphysics, but direct evidence for the existence of a non‑physical, relational layer — an informational network — that binds physical manifestations into coherent wholes. Author: Super Son of Net (Waldemar Superson)
Bell experiments have confirmed that quantum entanglement is an inseparable correlation but there is no faster-than-light influence between two entangled particles when a local measurement is performed. However, how such an inseparable correlation is maintained and manifested when the two entangled particle are space-like separated is still not well understood. The recently proposed extended least action principle for quantum mechanics brings new insights to this question. By applying this principle, we show here that even though the inseparable correlation may be initially created by previous physical interaction between the two particles, the preservation and manifestation of such inseparable correlation are achieved through extremizing an information metric that measures the additional observable information of the bipartite system due to vacuum fluctuations. This is physically realized even though there is no further interaction when the two particles move apart, and the underlying vacuum fluctuations are local. In other words, the propagation of inseparable correlation in quantum theory is realized by an information requirement and through a local mechanism. An example of two entangled free particles described by Gaussian wave packets is provided to illustrate these results.
Abstract: This brief note presents an update to the Informational Ontology following a recent conceptual breakthrough. A new definition of matter is introduced: matter as a stable concentration of information maintained in the form of a UF (Unit of Form). This perspective allows for a natural explanation of quantum entanglement as a shared informational structure rather than communication between particles. The note serves as an introductory update; a full version of the Informational Ontology will be published at a later stage. Description: This record contains a short conceptual update to the Informational Ontology, including the revised definition of matter and an informational explanation of quantum entanglement. The full text of the note is included in the attached PDF / in the text below. Author: Waldemar Superson
This brief work presents an updated formulation of the informational ontology in which matter is interpreted as a stable concentration of information. In this view, physical reality is not fundamentally material but informational, with matter emerging as persistent, structured informational configurations. The update clarifies the conceptual basis for treating information as primary and examines how this perspective naturally accounts for non‑local correlations observed in quantum entanglement experiments. Instead of viewing entanglement as a paradox within a material ontology, the informational framework interprets it as empirical evidence for an underlying informational dimension that structurally precedes physical processes. The text refines earlier formulations of the ontology, introduces a more precise definition of “stable concentration of information,” and situates the model within contemporary discussions in quantum foundations and the philosophy of science. It aims to contribute to interdisciplinary debates on the nature of matter, the role of information, and the conceptual foundations of physical reality. Author: Waldemar Superson Full book available at: https://www.amazon.com/dp/B0GMW2F3XN
Abstract Quantum entanglement and quantum nonlocality are examined in the context of the fundamental relationship between spacetime symmetry and conservation laws. It is established that quantum nonlocality arises from the very structure of spacetime. Arguments are presented in favor of the secondary nature of the spacetime continuum relative to more fundamental principles and concepts of the microworld. An example is given of a closed quantum entangled system, which demonstrates that such a system behaves as an indivisible whole: its particles are inseparably linked through the conservation of momentum. Physically, this manifests as strict correlations in measurements—correlations that must be nonlocal in nature. This supports the idea that there exist deep mechanisms of coordination, such as the principle of reciprocity between coordinate and momentum representations, and binary relations permeating the fabric of nonlocal spacetime. To understand the coherent behavior of such systems, it is necessary to move beyond local reductionism and accept the objective reality of global connections that bind the elements of the system into a unified ensemble.
Quantum entanglement remains one of the most perplexing and foundational phenomena in quantum mechanics, demonstrating instantaneous correlations between particles regardless of distance. This article hypothesizes that quantum entanglement may serve not merely as an artifact of quantum systems but as a fundamental structural component of a broader multiversal framework. By synthesizing principles from quantum mechanics, theoretical physics, and cosmology, the argument is developed that entanglement might indicate the coexistence and interaction of parallel realities. Such a perspective challenges the conventional interpretation of entanglement as a closed-system phenomenon and posits it instead as an interdimensional tether across multiple universes. Though currently speculative and beyond empirical verification, this hypothesis opens a philosophical and theoretical avenue for reevaluating the implications of entanglement and the nature of reality itself. By reframing entanglement as a bridge rather than a boundary, the article explores whether the quantum world subtly encodes the existence of the multiverse within its very correlations.
This paper presents an intuitive, mechanistic explanation of quantum entanglement using standard physics language while incorporating deeper insights aligned with the MID/QC framework. Entanglement is typically described as a correlation between two particles that persists across distance, but standard quantum mechanics does not provide a physical mechanism for how this correlation is maintained. In this interpretation, entanglement arises when two quantum systems interact closely enough for the underlying medium to form a single coherent oscillation pattern spanning both. After separation, each system remains a boundary expression of this shared structure. Measurement does not transmit information; it reveals the state of the pre existing coherence pattern. This approach preserves all quantum predictions while offering a clear physical mechanism for entanglement, correlation, and decoherence.