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Quantum Information and Computation VI

Eric Donkor, Andrew R. Pirich, Howard E. Brandt

Published May 1, 2008• 1 citation
OpenAlex

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The purpose of this report is the presentation of an original approach for complementary modeling of quantum information objects (quantum circuits) in the virtual instruments environments (VI-environments). While doing the research work the algebraic-topological apparatus for identifying fractal-time structure of the observed signal based on physical phenomenology and p-adic metrics was used. The main result of the work is a new cognitive strategy of multidimensional methodological thinking, based on the following principles: modeling, diversification, complementarity, virtualization, tolerance, duality. The conclusions emphasize the relationship between asynchronous VI-environments ideology and Bergson's philosophy: the events produced by VI-environment components interaction, are objectively exist - they appear and disappear, simulating, thus, some continuous time flow.

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Paper VI — Entanglement Information Locality and Many-Body Structure

Paul Cooney

Paper VI — Entanglement Information Locality and Many-Body Structure DescriptionThis work extends ordered-dynamics locality principles to composite systems, deriving entanglement structure and many-body correlations from operational constraints. Entanglement emerges as a necessary feature of jointly constrained information propagation, not as an added axiom. The paper clarifies the operational meaning of non-separability and establishes the foundations for multi-particle quantum structure within the ODRP. Keywordsentanglement; many-body systems; quantum correlations; operational locality; information theory; quantum foundations

•Dec 14, 2025•0 citations

Quantum Information and Computation IX

Eric Donkor, Michael J. Hayduk

•Jun 30, 2011•2 citations
The purpose of this report is the presentation of an original approach for complementary modeling of quantum information objects (quantum circuits) in the virtual instruments environments (VI-environments). While doing the research work the algebraic-topological apparatus for identifying fractal-time structure of the observed signal based on physical phenomenology and p-adic metrics was used. The main result of the work is a new cognitive strategy of multidimensional methodological thinking, based on the following principles: modeling, diversification, complementarity, virtualization, tolerance, duality. The conclusions emphasize the relationship between asynchronous VI-environments ideology and Bergson's philosophy: the events produced by VI-environment components interaction, are objectively exist - they appear and disappear, simulating, thus, some continuous time flow.
A computer model of a qubit is constructed. We have considered a number of key experiments in the physics of quantum information: (1) the distribution of value of quantum observables for a single qubit, (ii) correlation functions in a quantum singlet state of two qubits, (iii) the Einstein-Podolsky-Rosen paradox, (iv) the violation of the Bell inequality, (v) quantum-state teleportation, (vi) and the fidelity of teleportation. In all these cases the proposed model regularly reproduces results of quantum measurements without the use of adjustable parameters.
Paper VI — Entanglement Information Locality and Many-Body Structure DescriptionThis work extends ordered-dynamics locality principles to composite systems, deriving entanglement structure and many-body correlations from operational constraints. Entanglement emerges as a necessary feature of jointly constrained information propagation, not as an added axiom. The paper clarifies the operational meaning of non-separability and establishes the foundations for multi-particle quantum structure within the ODRP. Keywordsentanglement; many-body systems; quantum correlations; operational locality; information theory; quantum foundations