A MILP-based method that adds thermodynamic constraints to hyperflow pathway search in chemical reaction networks, applied to HCN-formamide chemistry.
Barking up the right tree: an approach to search over molecule synthesis DAGs
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abstract
When designing new molecules with particular properties, it is not only important what to make but crucially how to make it. These instructions form a synthesis directed acyclic graph (DAG), describing how a large vocabulary of simple building blocks can be recursively combined through chemical reactions to create more complicated molecules of interest. In contrast, many current deep generative models for molecules ignore synthesizability. We therefore propose a deep generative model that better represents the real world process, by directly outputting molecule synthesis DAGs. We argue that this provides sensible inductive biases, ensuring that our model searches over the same chemical space that chemists would also have access to, as well as interpretability. We show that our approach is able to model chemical space well, producing a wide range of diverse molecules, and allows for unconstrained optimization of an inherently constrained problem: maximize certain chemical properties such that discovered molecules are synthesizable.
fields
q-bio.MN 1years
2024 1verdicts
REJECT 1representative citing papers
citing papers explorer
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Finding Thermodynamically Favorable Pathways in Chemical Reaction Networks Using Flows in Hypergraphs and Mixed-Integer Linear Programming
A MILP-based method that adds thermodynamic constraints to hyperflow pathway search in chemical reaction networks, applied to HCN-formamide chemistry.