J.K. Gimzewski, T.A. Jung, et al.
Surface Science
Polymers are candidate materials for a wide range of sustainability applications such as carbon capture and energy storage. However, computational polymer discovery lacks automated analysis of reaction pathways and stability assessment through retro-synthesis. Here, we report an extension of transformer-based language models to polymerization for both reaction and retrosynthesis tasks. To that end, we have curated a polymerization dataset for vinyl polymers covering reactions and retrosynthesis for representative homo-polymers and co-polymers. Overall, we obtain a forward model Top-4 accuracy of 80% and a backward model Top-4 accuracy of 60%. We further analyze the model performance with representative polymerization examples and evaluate its prediction quality from a materials science perspective. To enable validation and reuse, we have made our models and data available in public repositories.
J.K. Gimzewski, T.A. Jung, et al.
Surface Science
Michael Ray, Yves C. Martin
Proceedings of SPIE - The International Society for Optical Engineering
R.D. Murphy, R.O. Watts
Journal of Low Temperature Physics
Shu-Jen Han, Dharmendar Reddy, et al.
ACS Nano