Data mining for materials science
-
Updated
Oct 15, 2026 - HTML
Data mining for materials science
A comprehensive, interactive learning path for applying machine learning to materials discovery, property prediction, and atomistic simulations.
A composition-based ML framework for predicting electronic band gaps of inorganic materials. XGBoost & Random Forest on 15,537 Materials Project compounds using Magpie descriptors.
Machine-learning analysis of how chemical composition, sintering conditions and physics-based descriptors contribute to ionic conductivity prediction in zirconia-based electrolytes. Includes grouped validation, SHAP interpretation and candidate screening.
Data-variance capture ability of Composition-descriptors while predicting the band gap (primarily semiconductor family choosen)
Inverse catalyst design with GP surrogates and multi-objective BO. Validated on published propane-dehydrogenation data: recovers Ga-Mo top-yield and Mg-modified low-deactivation families.
Machine learning model to predict band gap of iron-oxide materials using Materials Project database and matminer chemistry features. Built with Python, scikit-learn and Random Forest achieving R² of 0.665.
To associate your repository with the matminer topic, visit your repo's landing page and select "manage topics."