QC-MM: A Metadata and Schema Model for Traceable Quantum-Circuit Experiments

cic.institucionOrigenLaboratorio de Investigación y Formación en Informática Avanzada (LIFIA)
cic.isFulltextSI
cic.isPeerReviewedSI
cic.lugarDesarrolloLaboratorio de Investigación y Formación en Informática Avanzada (LIFIA)
cic.parentTypeArtículo
cic.versionPublicada
dc.date.accessioned2026-06-25T14:08:17Z
dc.date.available2026-06-25T14:08:17Z
dc.identifier.urihttps://digital.cic.gba.gob.ar/handle/11746/12712
dc.titleQC-MM: A Metadata and Schema Model for Traceable Quantum-Circuit Experimentsen
dc.typeArtículo
dcterms.abstractContext: Modern quantum-computing experimentation generates heterogeneous, contextdependent execution data whose scientific value depends on preserving calibration state, compilation decisions, and run outcomes in a traceable and repository-ready form. In the NISQ era, probabilistic outputs, time-varying hardware conditions, and opaque transpilation pipelines create a data-management problem that directly affects reproducibility, traceability, and long-term reuse of experimental records. Goal: This paper aims to address this gap by proposing a specialized metadata and schema model for managing quantum-circuit execution data as governed, machine-interpretable, and evolvable repository artifacts. Proposal: We propose QC-MM, a platform-agnostic metadata model for capturing, validating, and relating contextual evidence of quantum-circuit experiments. The model integrates time-indexed calibration binding, transpilation traceability, lightweight provenance links, validation rules, and controlled schema evolution through a JSON Schema specification. Results: The evaluation follows a multi-scenario protocol and shows that QC-MM captures dynamic calibration context in IBM Quantum Cloud, remains interoperable through a local SpinQ NMR device, and makes transpilation effects traceable through structured records. It also supports repeated-run statistical reporting and links compilation decisions to execution outcomes, including circuit-depth reductions and changes in an estimated fidelity proxy under different optimization settings. Conclusions: QC-MM provides a specialized data-modeling and schema-governance foundation for traceable quantum-experiment repositories. Beyond improving reproducibility-oriented reporting, the proposal contributes to metadata validation, controlled schema evolution, and repository-oriented management of contextual experimental dataen
dcterms.creator.authorHuenchuleo, Nawel
dcterms.creator.authorSepúlveda, Samuel
dcterms.creator.authorFernández, Alejandro
dcterms.identifier.otherDOI: 10.3390/app16136346
dcterms.identifier.otherISSN: 2076-3417
dcterms.identifier.urlhttps://doi.org/10.3390/app16136346
dcterms.isPartOf.issuevol. 16, no. 13
dcterms.isPartOf.seriesApplied Sciences
dcterms.issued2026
dcterms.languageInglés
dcterms.licenseAttribution 4.0 International (BY 4.0)
dcterms.subjectmetadata schema evolutionen
dcterms.subjectdata modelingen
dcterms.subjecttraceabilityen
dcterms.subjectprovenanceen
dcterms.subjectquantum circuit executionen
dcterms.subjectquantum experiment repositoriesen
dcterms.subjectJSON schemaen
dcterms.subjectQC-MMen
dcterms.subject.materiaCiencias de la Computación e Información

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