Ekins Sean, Lane Thomas R
Collaborations Pharmaceuticals Inc., 1730 Varsity Drive, Suite 360, Raleigh, NC 27606-5228, USA.
Collaborations Pharmaceuticals Inc., 1730 Varsity Drive, Suite 360, Raleigh, NC 27606-5228, USA.
Neurotherapeutics. 2025 Jul;22(4):e00624. doi: 10.1016/j.neurot.2025.e00624. Epub 2025 Jun 17.
Neurological disease encompasses over 1000 disorders, exacts a massive human health and financial toll as well as being a story of extremes. At one end are diseases that are complex and heterogeneous affecting millions, while at the other there are monogenic and rare diseases, with a handful of individuals. What are absent are drugs that can treat or cure the disease. Discovering these is challenging, held back by extreme costs to develop them or in some cases by the limited understanding of the diseases. After decades of drug discovery research there is now considerable data available which can be used to help develop novel compounds more strategically. This includes high throughput screening data with targets, crystal structures of proteins implicated in neurological diseases and adjacent data such as properties of molecules like blood brain barrier permeability as well as an array of in vitro and in vivo toxicity endpoints valuable for any drug targeting the central nervous system. While computational tools have been developing and applied to neurological diseases for decades, we are now in the age of machine learning and artificial intelligence (AI). This promises the potential to expedite the identification and discovery of new molecules. Whether by using individual computational techniques or complex end-to-end approaches, scientists can narrow the molecules they make and test as well as study more targets or diseases which might have been out of reach previously. This review highlights the many different applications of AI potentially enabling new discoveries and treatments for neurological diseases.
神经疾病涵盖1000多种病症,给人类健康和经济造成了巨大损失,且情况极为复杂。一方面是复杂多样、影响数百万人的疾病,另一方面是单基因罕见病,患者人数寥寥无几。目前缺乏能够治疗或治愈这些疾病的药物。发现此类药物颇具挑战性,原因在于研发成本高昂,或者在某些情况下是对疾病的了解有限。经过数十年的药物研发研究,现在已有大量数据可用于更具战略性地开发新型化合物。这包括带有靶点的高通量筛选数据、与神经疾病相关的蛋白质晶体结构以及诸如血脑屏障通透性等分子特性的相关数据,还有一系列对任何靶向中枢神经系统的药物都很有价值的体外和体内毒性终点数据。虽然计算工具已经发展并应用于神经疾病研究数十年,但我们现在正处于机器学习和人工智能(AI)时代。这有望加快新分子的识别和发现。无论是使用单独的计算技术还是复杂的端到端方法,科学家都可以缩小他们合成和测试的分子范围,并研究更多以前可能无法触及的靶点或疾病。本综述强调了人工智能的许多不同应用,这些应用有可能为神经疾病带来新的发现和治疗方法。