Material Informatics
Material informatics leverages data science and machine learning to accelerate materials discovery and design, aiming to overcome the limitations of traditional experimental and computational approaches. Current research emphasizes the development and application of various machine learning models, including generative models (like variational autoencoders and diffusion models), self-supervised learning frameworks (such as Deep InfoMax), and large language models augmented with data retrieval capabilities, to predict material properties, design novel materials, and extract information from scientific literature. This interdisciplinary field promises to significantly reduce the time and cost associated with materials development, impacting diverse sectors ranging from energy and aerospace to medicine and electronics.
Papers
Function Decomposition Tree with Causality-First Perspective and Systematic Description of Problems in Materials Informatics
Hiori Kino, Hieu-Chi Dam, Takashi Miyake, Riichiro Mizoguchi
Designing thermal radiation metamaterials via hybrid adversarial autoencoder and Bayesian optimization
Dezhao Zhu, Jiang Guo, Gang Yu, C. Y. Zhao, Hong Wang, Shenghong Ju