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openalexMendeley Data2026-07-23Cited by 0

Physics-Informed Machine Learning Framework for Cross-Family Classification and Inverse Identification of Superconducting Materials from Simulated Nanoindentation Responses — Reproducible Pipeline

Cafer Mert Yeşilkanat, Uğur Kölemen

This deposit is the complete, fully deterministic computational pipeline that reproduces every quantitative result, table, and figure of the associated article by C. M. Yeşilkanat and U. Kölemen. No physical indentation experiments were performed. A physics-informed Monte Carlo forward model — built on the Oliver–Pharr (1992) contact mechanics, the Nix–Gao (1998) indentation-size-effect law, and the Bolshakov–Pharr (1998) unloading/pile-up framework — generates 2,520 physically self-consistent Berkovich load–displacement (P–h) curves across six superconductor families (YBCO, BSCCO, MgB2, BaFe2As2, Nb3Sn, Nb/NbTi). Hardness and reduced-modulus sampling windows are anchored to peer-reviewed indentation measurements. The pipeline then (i) extracts dimensional-analysis curve-shape descriptors, (ii) benchmarks six-family classification (random forest, SVM, histogram gradient boosting; macro-F1 rising from 0.707 on scalar descriptors to 0.894 on curve-shape descriptors), (iii) provides SHAP and UMAP explainability, (iv) evaluates leave-one-family-out generalization with Isolation-Forest anomaly scoring, (v) recovers hardness, reduced modulus, and the indentation-size-effect length h* from a single curve (R2 = 0.986, 0.991, 0.937), (vi) runs an ablation isolating the physics-versus-machine-learning contribution, and (vii) validates the forward model against published BSCCO microindentation scalars. Everything is deterministic under the global random seed 20260719: a single command (python run_all.py) regenerates every number, table, and figure. Requirements: Python >= 3.10 (tested on 3.12); ~5–8 minutes on a standard laptop; no GPU. Released under the MIT license. Contents: code/ (5 Python modules), data/ (descriptor table + all reported scalars as JSON), figures/ (Figures 1–9 as PNG and editable-text SVG), tables/ (all manuscript tables as CSV), and full documentation (README, LICENSE, CITATION.cff, AUTHORS, data provenance/ethics, requirements, changelog).

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openalexMendeley Data2026-07-23

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This archive contains the data and MATLAB code used to reproduce the analyses, model evaluations, tables, and figures for the manuscript: “Evaluating the cross-lake transferability limits of machine learning models for Sentinel-3 inland water Chlorophyll-a retrieval” The study ev…

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openalexMendeley Data2026-07-23

Data for: Wide-Range Predictions of Hydrogen-Dependent Vacancy Diffusion in Nickel from a near-DFT-Accurate Machine-Learning Potential

Si Zhu, Nobuyoshi Komai, Shihao Zhang, Shigenobu Ogata

This archive provides the reproducibility materials associated with the manuscript “Wide-Range Predictions of Hydrogen-Dependent Vacancy Diffusion in Nickel from a near-DFT-Accurate Machine-Learning Potential.” It contains the numerical data underlying the manuscript figures and…

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openalexMendeley Data2026-07-23

IEEE Machine Learning Projects

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Choosing IEEE Machine Learning Projects is one of the best decisions engineering students can make to enhance their technical knowledge and prepare for successful careers in artificial intelligence and data science. With research-oriented implementations, practical applications,…

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