DrugPose: benchmarking 3D generative methods for early stage drug discovery

IF 6.2 Q1 CHEMISTRY, MULTIDISCIPLINARY
Zygimantas Jocys, Joanna Grundy and Katayoun Farrahi
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Abstract

Molecule generation in 3D space has gained attention in the past few years. These models typically have a hypothesis that they need to satisfy (i.e. shape) or they are designed to fit into a protein pocket. However, there's been limited evaluation of the 3D poses they produce. In the previous work, the generated molecules are redocked and the generated poses are disregarded. Moreover, many of the generated molecules are not synthesisable and druglike. To tackle these challenges we propose DrugPose, a novel benchmark framework, that utilises Simbind to evaluate the generated molecules based on their coherence with the initial hypothesis formed from available data (e.g., active compounds and protein structures) and their adherence to the laws of physics. Moreover, it offers enhanced insights into synthesizability by directly cross-referencing with a commercial database and utilising the Ghose filter for assessing drug-likeness. Considering current generative methods, the percentage of generated molecules with the intended binding mode ranges from 4.7% to 15.9%, with commercial accessibility spanning 23.6% to 38.8% and fully satisfying the Ghose filter between 10% and 40%. These results highlight the need for further research to develop more reliable and transparent methodologies for 3D molecule generation.

Abstract Image

Abstract Image

DrugPose:为早期药物发现的三维生成方法设定基准
在过去几年中,三维空间中的分子生成技术受到了广泛关注。这些模型通常有一个需要满足的假设(即形状),或者被设计成适合蛋白质口袋。然而,对它们生成的三维姿态的评估却很有限。在以前的工作中,生成的分子会被重新锁定,而生成的姿势会被忽略。此外,许多生成的分子无法合成,也不像药物。为了应对这些挑战,我们提出了一种新的基准框架 DrugPose,它利用 Simbind 评估生成的分子,评估的依据是这些分子是否与根据现有数据(如活性化合物和蛋白质结构)形成的初始假设一致,是否符合物理定律。此外,它还通过直接与商业数据库进行交叉对比,并利用 Ghose 过滤器评估药物相似性,从而提高了对可合成性的洞察力。考虑到当前的生成方法,所生成的分子中具有预期结合模式的比例在 4.7% 到 15.9% 之间,商业可得性在 23.6% 到 38.8% 之间,完全符合 Ghose 过滤器的比例在 10% 到 40% 之间。这些结果凸显了进一步研究的必要性,以开发更可靠、更透明的三维分子生成方法。
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CiteScore
2.80
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