Recognition, Rigidity, and Dimension from Directed Quantum Distinguishability

This record contains the manuscript, unified Supplemental Material, source files, author-generated analysis code, derived numerical products, figures, and provenance material supporting *Recognition, Rigidity, and Dimension from Directed Quantum Distinguishability*. For faithful qubits, the work develops an algebraic recognition criterion and generic global rigidity from directed max-relative entropy, together with sparse reconstruction using a constructive global bound of 4n-7 directed entries and the generic local optimum 3n-3. Beyond qubits, directed-cycle asymmetry yields a pairwise-spectral hierarchy giving computable lower bounds on Hilbert-space dimension. A public superconducting-qubit data set provides an end-to-end finite-setting validation with no tomography or density-matrix estimate in the reconstruction path. The archive includes reproducibility code, derived directed-distinguishability matrices, reconstructed geometries, cross-validation and resampling outputs, finite-setting convergence tests, sparse 100-state reconstruction products, figure sources, verification reports, provenance records, and SHA-256 checksums. External experimental data are not redistributed; authoritative publications and repositories, exact filenames where available, and frozen hashes are recorded for independent retrieval and verification.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-30
DOI
https://doi.org/10.5281/zenodo.22724470
Primary Topic
Quantum Information and Cryptography
Type
article
Field-Weighted Citation Impact
0.00
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Recognition, Rigidity, and Dimension from Directed Quantum Distinguishability

Idrees Oreibi, Rehab Shather Abdul Hamza
Zenodo (CERN European Organization for Nuclear Research)
Quantum Information and Cryptography
article

Recognition, Rigidity, and Dimension from Directed Quantum Distinguishability

Idrees Oreibi, Rehab Shather Abdul Hamza
article en

Abstract

This record contains the manuscript, unified Supplemental Material, source files, author-generated analysis code, derived numerical products, figures, and provenance material supporting *Recognition, Rigidity, and Dimension from Directed Quantum Distinguishability*. For faithful qubits, the work develops an algebraic recognition criterion and generic global rigidity from directed max-relative entropy, together with sparse reconstruction using a constructive global bound of 4n-7 directed entries and the generic local optimum 3n-3. Beyond qubits, directed-cycle asymmetry yields a pairwise-spectral hierarchy giving computable lower bounds on Hilbert-space dimension. A public superconducting-qubit data set provides an end-to-end finite-setting validation with no tomography or density-matrix estimate in the reconstruction path. The archive includes reproducibility code, derived directed-distinguishability matrices, reconstructed geometries, cross-validation and resampling outputs, finite-setting convergence tests, sparse 100-state reconstruction products, figure sources, verification reports, provenance records, and SHA-256 checksums. External experimental data are not redistributed; authoritative publications and repositories, exact filenames where available, and frozen hashes are recorded for independent retrieval and verification.

Zenodo (CERN European Organization for Nuclear Research)
Ministry of Education (IQ)
Openalex Percentile: Top 16%
Quantum Information and Cryptography
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