BioMolFormer: A Novel Approach to Molecular Generation with SELFIES and Monte Carlo Tree Search

In this study, we present BioMolFormer, a novel model to enhance the generation and optimization of drug candidates, especially for their binding affinity to target proteins. BioMolFormer integrates Transformer networks and MCTS to improve the power of exploring chemical space by deploying robust molecular representation based on using SELFIES. Results: Experiments show that BioMolFormer excels traditional methods in both molecular validity and diversity, with 100% chemical validities and an average docking score of 9.9; they highlighted the promise of dramatically improving drug discovery with this model.

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Published
2024-12-27
DOI
https://doi.org/10.1145/3715931.3715941
Primary Topic
Computational Drug Discovery Methods
Type
article
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article

BioMolFormer: A Novel Approach to Molecular Generation with SELFIES and Monte Carlo Tree Search

Yuntao Zhang, Y Q Liu, F. Wang, Lijun Shi et al.
Computational Drug Discovery Methods
article

BioMolFormer: A Novel Approach to Molecular Generation with SELFIES and Monte Carlo Tree Search

Yuntao Zhang, Y Q Liu, F. Wang, Lijun Shi, Lei Liu
article en

Abstract

In this study, we present BioMolFormer, a novel model to enhance the generation and optimization of drug candidates, especially for their binding affinity to target proteins. BioMolFormer integrates Transformer networks and MCTS to improve the power of exploring chemical space by deploying robust molecular representation based on using SELFIES. Results: Experiments show that BioMolFormer excels traditional methods in both molecular validity and diversity, with 100% chemical validities and an average docking score of 9.9; they highlighted the promise of dramatically improving drug discovery with this model.

The University of Sydney (AU), University of Wisconsin–Madison (US), Sun Yat-sen University (CN), New York University (US)
Openalex Percentile: Top 68%
Computational Drug Discovery Methods
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