Bustillo Latimah, Laino Teodoro, Rodrigues Tiago
Research Institute for Medicines (iMed), Faculdade de Farmácia, Universidade de Lisboa Lisbon Portugal
IBM Research Europe Säumerstrasse 4 8803 Rüschlikon Switzerland.
Chem Sci. 2023 Sep 8;14(38):10378-10384. doi: 10.1039/d3sc03367h. eCollection 2023 Oct 4.
The quest for generating novel chemistry knowledge is critical in scientific advancement, and machine learning (ML) has emerged as an asset in this pursuit. Through interpolation among learned patterns, ML can tackle tasks that were previously deemed demanding to machines. This distinctive capacity of ML provides invaluable aid to bench chemists in their daily work. However, current ML tools are typically designed to prioritize experiments with the highest likelihood of success, , higher predictive confidence. In this perspective, we build on current trends that suggest a future in which ML could be just as beneficial in exploring uncharted search spaces through simulated curiosity. We discuss how low and 'negative' data can catalyse one-/few-shot learning, and how the broader use of curious ML and novelty detection algorithms can propel the next wave of chemical discoveries. We anticipate that ML for curiosity-driven research will help the community overcome potentially biased assumptions and uncover unexpected findings in the chemical sciences at an accelerated pace.
追求生成新的化学知识对科学进步至关重要,而机器学习(ML)已成为这一追求中的一项宝贵资产。通过在学习到的模式之间进行插值,ML 可以处理以前被认为对机器要求很高的任务。ML 的这种独特能力为实验室化学家的日常工作提供了宝贵的帮助。然而,当前的 ML 工具通常设计为优先考虑成功可能性最高的实验,即具有更高的预测置信度。从这个角度来看,我们基于当前的趋势,这些趋势表明未来 ML 在通过模拟好奇心探索未知搜索空间方面可能同样有益。我们讨论了低数据和“负面”数据如何促进单样本/少样本学习,以及更广泛地使用具有好奇心的 ML 和新奇性检测算法如何推动下一波化学发现。我们预计,用于好奇心驱动研究的 ML 将帮助该领域克服潜在的偏见假设,并加速发现化学科学中意想不到的发现。