Atomistic Machine Learning
Atomistic machine learning (ML) aims to predict the properties of materials and molecules using machine learning models trained on atomistic data, accelerating materials discovery and design. Current research focuses on developing robust and efficient ML models, including neural networks and graph neural networks, often incorporating techniques like Bayesian optimization and automatic differentiation to improve accuracy and reduce computational cost. Key challenges involve handling the high dimensionality of atomistic data, ensuring model accuracy and uncertainty quantification, and developing methods that explicitly incorporate physical symmetries and constraints. These advancements promise to significantly reduce the time and resources required for materials simulations and discovery, impacting fields ranging from catalysis to drug design.
Papers
Adaptive Catalyst Discovery Using Multicriteria Bayesian Optimization with Representation Learning
Jie Chen, Pengfei Ou, Yuxin Chang, Hengrui Zhang, Xiao-Yan Li, Edward H. Sargent, Wei Chen
Model-free quantification of completeness, uncertainties, and outliers in atomistic machine learning using information theory
Daniel Schwalbe-Koda, Sebastien Hamel, Babak Sadigh, Fei Zhou, Vincenzo Lordi