Data and AI Driven Inorganic Retrosynthesis
--- Predictive synthesis of inorganic materials, powered by big data and artificial intelligence
With the aid of high-throughput computation, we can generate hundreds or thousands of materials in a relatively short time. However, making them happen in experiments usually take a much longer time. This is particularly complicate for inorganic ceramic materials given that there could be many synthesis options while on the other hand a lot of side reactions may happen. In this part of research, I am interested in developing predictive theory to provide experimental synthesis instructions. It covers typical synthesis conditions such as temperature, composition, pH etc., as well as unconventional synthesis conditions, such as curvature, external strain, electrostatic gating, eletric field etc. I hope my research can not only provide tips for rationale the experimentation design, but also contibute to the realization of autonomous synthesis development for ceramic materials.
Representative Papers
- Max ΔG Theory for Metal Oxide Synthesis
- Machine Learning Guided Phase Selection Rules of High Entropy Alloy
- Phenomenological Theory of Synthesizability from Symbolic Machine Learning
- Size Dependent Effect in Solid-state Synthesis
- Tunable Phase Stability of 2D Materials via epitaxial growth and strain