Habib Mamoon, Lalagkas Panagiotis Nikolaos, Melamed Rachel D
Department of Computer Science, University of Massachusetts Lowell, Lowell, MA 01854, United States.
Department of Biological Science, University of Massachusetts Lowell, Lowell, MA 01854, United States.
Bioinform Adv. 2024 Mar 9;4(1):vbae038. doi: 10.1093/bioadv/vbae038. eCollection 2024.
Medications can have unexpected effects on disease, including not only harmful drug side effects, but also beneficial drug repurposing. These effects on disease may result from hidden influences of drugs on disease gene networks. Then, discovering how biological effects of drugs relate to disease biology can both provide insight into the mechanism of latent drug effects, and can help predict new effects.
Here, we develop Draphnet, a model that integrates molecular data on 429 drugs and gene associations of nearly 200 common phenotypes to learn a network that explains drug effects on disease in terms of these molecular signals. We present evidence that our method can both predict drug effects, and can provide insight into the biology of unexpected drug effects on disease. Using Draphnet to map a drug's known molecular effects to downstream effects on the disease genome, we put forward disease genes impacted by drugs, and we suggest a new grouping of drugs based on shared effects on the disease genome. Our approach has multiple applications, including predicting drug uses and learning drug biology, with implications for personalized medicine.
Code to reproduce the analysis is available at https://github.com/RDMelamed/drug-phenome.
药物可能对疾病产生意想不到的影响,这不仅包括有害的药物副作用,还包括有益的药物重新利用。药物对疾病的这些影响可能源于药物对疾病基因网络的潜在影响。因此,发现药物的生物学效应与疾病生物学之间的关系,既能深入了解潜在药物效应的机制,又有助于预测新的效应。
在此,我们开发了Draphnet模型,该模型整合了429种药物的分子数据以及近200种常见表型的基因关联,以学习一个能根据这些分子信号解释药物对疾病影响的网络。我们提供的证据表明,我们的方法既能预测药物效应,又能深入了解药物对疾病产生意外效应的生物学机制。利用Draphnet将药物已知的分子效应映射到对疾病基因组的下游效应,我们提出了受药物影响的疾病基因,并基于对疾病基因组的共同效应提出了一种新的药物分组方法。我们的方法有多种应用,包括预测药物用途和了解药物生物学,对个性化医疗具有重要意义。