STELLAR: A Phase-Coherence Validation Framework for Harmonic-Physics Modeling

STELLAR Reproducibility Package (v1.0)HSAG Consortium for Resonant Research LLC This reproducibility archive accompanies the white paper “STELLAR: Coherence Diagnostics in a Stable Diurnal Regime” (2025). The STELLAR framework introduces harmonic-coherence physics to predictive analytics, demonstrating how phase-resolved coupling among meteorological variables can improve accuracy and interpretability in environmental forecasting. The package includes:• Full Python source for baseline vs. phase-aware validation (STELLAR_validate.ipynb)(datasets.ipynb)(Baseline vs STELLAR.ipynb)• Reproducible Conda environment (dev_environment.yml)• Testing guide (Testing.rmd)• Synthetic data generator and visual outputs Results confirm that incorporating phase-coherence metrics yields measurable reductions in RMSE and MAE relative to baseline regression, while maintaining physically meaningful structure. This dataset and code are released under the HSAG Collaborative Research License (CRL v1.0) for non-commercial, academic use. Keywords: HSAG, STELLAR, harmonic coherence, phase ratio, resonance diagnostics, reproducibility, machine learning, environmental analytics For more information:www.hsagconsortium.netContact: [email protected]

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-10
DOI
https://doi.org/10.5281/zenodo.17573987
Primary Topic
Meteorological Phenomena and Simulations
Type
article
Field-Weighted Citation Impact
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article

STELLAR: A Phase-Coherence Validation Framework for Harmonic-Physics Modeling

Zenodo (CERN European Organization for Nuclear Research)
Meteorological Phenomena and Simulations
article

STELLAR: A Phase-Coherence Validation Framework for Harmonic-Physics Modeling

article en

Abstract

STELLAR Reproducibility Package (v1.0)HSAG Consortium for Resonant Research LLC This reproducibility archive accompanies the white paper “STELLAR: Coherence Diagnostics in a Stable Diurnal Regime” (2025). The STELLAR framework introduces harmonic-coherence physics to predictive analytics, demonstrating how phase-resolved coupling among meteorological variables can improve accuracy and interpretability in environmental forecasting. The package includes:• Full Python source for baseline vs. phase-aware validation (STELLAR_validate.ipynb)(datasets.ipynb)(Baseline vs STELLAR.ipynb)• Reproducible Conda environment (dev_environment.yml)• Testing guide (Testing.rmd)• Synthetic data generator and visual outputs Results confirm that incorporating phase-coherence metrics yields measurable reductions in RMSE and MAE relative to baseline regression, while maintaining physically meaningful structure. This dataset and code are released under the HSAG Collaborative Research License (CRL v1.0) for non-commercial, academic use. Keywords: HSAG, STELLAR, harmonic coherence, phase ratio, resonance diagnostics, reproducibility, machine learning, environmental analytics For more information:www.hsagconsortium.netContact: [email protected]

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 39%
Meteorological Phenomena and Simulations
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