Consolidated Technical Addendum on Continuous Bidirectional Transport - Quantum BIC Dynamics and Classical Cooperative Transport with Calibrated Reset Controls

Overview This consolidated technical addendum accompanies Metastable Quantum Cavitation as a Continuous Bidirectional Transport Framework (DOI: 10.5281/zenodo.22944164). It integrates, revises, and extends the computational and methodological material presented in two previously published supplements: Beyond Mean Subsystem Distinguishability: A Distributional Heterogeneity of Local-Perturbation Accessibility (DOI: 10.5281/zenodo.23196395). Metastable Quantum Cavitation Technical Supplement No. 1 (DOI: 10.5281/zenodo.23305447). Scope and methodology The addendum examines phase-dependent transport and information-accessibility properties through complementary computational frameworks, including a three-qubit open quantum system governed by Lindblad dynamics, a separate classical continuous-time Markov model, and distributional distinguishability analyses using local perturbations. The quantum and classical models are treated as distinct constructions; no microscopic derivation of one from the other is claimed. The accompanying computational archive contains supporting data, numerical results, implementation materials, and reproducibility documentation. Main findings and limitations The analyses identify parameter-dependent transport responses and distributional distinctions that are not fully characterized by mean subsystem distinguishability alone. However, favorable changes in selected transport observables do not establish a general net energetic advantage. The reported accessibility tests likewise do not demonstrate universal superiority of the proposed measurement approach. The results are model-specific computational findings. They do not constitute experimental confirmation of metastable quantum cavitation, a demonstrated microscopic mechanism for the proposed physical framework, or evidence of gravitational effects. Relationship to previous publications This consolidated edition supersedes the two earlier supplements as the preferred technical and computational reference. Both preceding publications remain independently accessible and retain their historical provenance, original attribution, and bibliographic identity. The original framework paper remains the primary conceptual publication. This addendum provides its updated technical and computational supporting material. Reproducibility The deposited computational archive is provided to facilitate independent inspection and reproduction of the reported analyses. An accompanying SHA-256 checksum enables verification of archive integrity.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-17
DOI
https://doi.org/10.5281/zenodo.23432632
Primary Topic
Advanced Thermodynamics and Statistical Mechanics
Type
article
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Consolidated Technical Addendum on Continuous Bidirectional Transport - Quantum BIC Dynamics and Classical Cooperative Transport with Calibrated Reset Controls

Anna Maria Sabatini, Luca BENEDETTINI
Zenodo (CERN European Organization for Nuclear Research)
Advanced Thermodynamics and Statistical Mechanics
article

Consolidated Technical Addendum on Continuous Bidirectional Transport - Quantum BIC Dynamics and Classical Cooperative Transport with Calibrated Reset Controls

Anna Maria Sabatini, Luca BENEDETTINI
article en

Abstract

Overview This consolidated technical addendum accompanies Metastable Quantum Cavitation as a Continuous Bidirectional Transport Framework (DOI: 10.5281/zenodo.22944164). It integrates, revises, and extends the computational and methodological material presented in two previously published supplements: Beyond Mean Subsystem Distinguishability: A Distributional Heterogeneity of Local-Perturbation Accessibility (DOI: 10.5281/zenodo.23196395). Metastable Quantum Cavitation Technical Supplement No. 1 (DOI: 10.5281/zenodo.23305447). Scope and methodology The addendum examines phase-dependent transport and information-accessibility properties through complementary computational frameworks, including a three-qubit open quantum system governed by Lindblad dynamics, a separate classical continuous-time Markov model, and distributional distinguishability analyses using local perturbations. The quantum and classical models are treated as distinct constructions; no microscopic derivation of one from the other is claimed. The accompanying computational archive contains supporting data, numerical results, implementation materials, and reproducibility documentation. Main findings and limitations The analyses identify parameter-dependent transport responses and distributional distinctions that are not fully characterized by mean subsystem distinguishability alone. However, favorable changes in selected transport observables do not establish a general net energetic advantage. The reported accessibility tests likewise do not demonstrate universal superiority of the proposed measurement approach. The results are model-specific computational findings. They do not constitute experimental confirmation of metastable quantum cavitation, a demonstrated microscopic mechanism for the proposed physical framework, or evidence of gravitational effects. Relationship to previous publications This consolidated edition supersedes the two earlier supplements as the preferred technical and computational reference. Both preceding publications remain independently accessible and retain their historical provenance, original attribution, and bibliographic identity. The original framework paper remains the primary conceptual publication. This addendum provides its updated technical and computational supporting material. Reproducibility The deposited computational archive is provided to facilitate independent inspection and reproduction of the reported analyses. An accompanying SHA-256 checksum enables verification of archive integrity.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 13%
Advanced Thermodynamics and Statistical Mechanics
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