基于图的分子药物发现的联邦生成对抗网络:特别会议论文

Daniel Manu, Yi Sheng, Junhuan Yang, Jieren Deng, Tong Geng, Ang Li, Caiwen Ding, Weiwen Jiang, Lei Yang
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引用次数: 6

摘要

2019冠状病毒病(COVID-19)全球大流行的爆发凸显了协同研发药物对高效的重要性;然而,由于严格的数据监管,数据隐私成为一个迫切需要解决的问题,以实现协同药物发现。除了数据隐私问题外,药物发现的效率是另一个关键目标,因为传染病呈指数级传播,有效地进行药物发现可以挽救生命。先进的人工智能(AI)技术有望解决这些问题:(1)联邦学习(FL)的诞生是为了在从分布式客户端学习数据时保护数据隐私;(2)图神经网络(GNN)可以提取以连接原子为底层结构的分子的结构性质;(3)生成式对抗网络(GAN)可以生成新的分子,同时保留从训练数据中学习到的特性。在这项工作中,我们首次尝试构建一个整体协作和隐私保护的FL框架,即FL- disco,它集成了GAN和GNN来生成分子图。实验结果表明,FL-DISCO在ESOL和QM9的IID数据上的有效性:(1)与基线相比,FL-DISCO可以生成具有高药物可能性、唯一性和LogP分数的高度新颖的化合物;(2) ESOL和QM9的非iid数据,其中FL-DISCO产生100%的新化合物,与基线相比具有较高的效度和LogP评分。我们还演示了客户端、生成器和鉴别器架构的不同部分如何影响我们的评估分数。
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FL-DISCO: Federated Generative Adversarial Network for Graph-based Molecule Drug Discovery: Special Session Paper
The outbreak of the global COVID-19 pandemic emphasizes the importance of collaborative drug discovery for high effectiveness; however, due to the stringent data regulation, data privacy becomes an imminent issue needing to be addressed to enable collaborative drug discovery. In addition to the data privacy issue, the efficiency of drug discovery is another key objective since infectious diseases spread exponentially and effectively conducting drug discovery could save lives. Advanced Artificial Intelligence (AI) techniques are promising to solve these problems: (1) Federated Learning (FL) is born to keep data privacy while learning data from distributed clients; (2) graph neural network (GNN) can extract structural properties of molecules whose underlying architecture is the connected atoms; and (3) generative adversarial network (GAN) can generate novel molecules while retaining the properties learned from the training data. In this work, we make the first attempt to build a holistic collaborative and privacy-preserving FL framework, namely FL-DISCO, which integrates GAN and GNN to generate molecular graphs. Experimental results demonstrate the effectiveness of FL-DISCO on: (1) IID data for ESOL and QM9, where FL-DISCO can generate highly novel compounds with high drug-likeliness, uniqueness and LogP scores compared to the baseline; (2) non-IID data for ESOL and QM9, where FL-DISCO generates 100% novel compounds with high validity and LogP scores compared to the baseline. We also demonstrate how different fractions of clients, generator and discriminator architectures affect our evaluation scores.
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