End-to-end Deep Reinforcement Learning for Targeted Drug Generation

Tiago Oliveira Pereira, Maryam Abbasi, B. Ribeiro, Joel P. Arrais
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引用次数: 2

Abstract

The long period of time and the enormous financial costs required to bring a new drug to the market are a clear impediment to the development of new drugs. Deep Learning techniques at early stages of drug discovery can help to select candidate drugs with biological properties of interest, reduce the enormous research space of drug-like compounds and minimize these issues. This study aims to perform generation of targeted molecules by training the recurrent neural network to learn the building rules of production of valid molecules in the form of SMILES strings and optimize it to produce molecules with bespoke properties through Reinforcement Learning. The fitness of the newly generated molecules is obtained by a second neural network model. To demonstrate the effectiveness of the method, we trained the proposed model to design molecules with high inhibitory power for the k-opioid receptor (KOR). The optimized model was able to generate molecules with a stronger affinity for KOR, maintaining the percentage of valid molecules and, with satisfactory internal and external diversities based on Tanimoto similarity over 95%.
端到端深度强化学习用于靶向药物生成
将新药推向市场所需的漫长时间和巨大的财务成本是新药开发的明显障碍。在药物发现的早期阶段,深度学习技术可以帮助选择具有感兴趣的生物学特性的候选药物,减少类药物化合物的巨大研究空间,并最大限度地减少这些问题。本研究旨在通过训练递归神经网络来生成目标分子,以SMILES字符串的形式学习有效分子的生成规则,并通过强化学习对其进行优化,以生成具有定制属性的分子。新生成分子的适应度由第二个神经网络模型获得。为了证明该方法的有效性,我们训练了所提出的模型来设计对k-阿片受体(KOR)具有高抑制能力的分子。优化后的模型能够生成对KOR具有更强亲和力的分子,保持有效分子的百分比,并且基于谷本相似度超过95%的内部和外部多样性令人满意。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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