Ohlmeyer Michael, Zhou Ming-Ming
Department of Structural and Chemical Biology, Mount Sinai School of Medicine, New York, NY, USA.
Mt Sinai J Med. 2010 Jul-Aug;77(4):350-7. doi: 10.1002/msj.20197.
Rapid advances in biomedical sciences in recent years have drastically accelerated the discovery of the molecular basis of human diseases. The great challenge is how to translate the newly acquired knowledge into new medicine for disease prevention and treatment. Drug discovery is a long and expensive process, and the pharmaceutical industry has not been very successful at it, despite its enormous resources and spending on the process. It is increasingly realized that academic biomedical research institutions ought to be engaged in early-stage drug discovery, especially when it can be coupled to their basic research. To leverage the productivity of new-drug development, a substantial acceleration in validation of new therapeutic targets is required, which would require small molecules that can precisely control target functions in complex biological systems in a temporal and dose-dependent manner. In this review, we describe a process of integration of small-molecule discovery and chemistry in academic biomedical research that will ideally bring together the elements of innovative approaches to new molecular targets, existing basic and clinical research, screening infrastructure, and synthetic and medicinal chemistry to follow up on small-molecule hits. Such integration of multidisciplinary resources and expertise will enable academic investigators to discover novel small molecules that are expected to facilitate their efforts in both mechanistic research and new-drug target validation. More broadly academic drug discovery should contribute new entities to therapy for intractable human diseases, especially for orphan diseases, and hopefully stimulate and synergize with the commercial sector.
近年来,生物医学科学的飞速发展极大地加速了人类疾病分子基础的发现。巨大的挑战在于如何将新获得的知识转化为用于疾病预防和治疗的新药。药物研发是一个漫长且昂贵的过程,尽管制药行业在这个过程中投入了巨大的资源和资金,但成效并不显著。人们越来越意识到,学术性生物医学研究机构应该参与早期药物研发,尤其是当它能够与基础研究相结合的时候。为了提高新药开发的效率,需要大幅加快新治疗靶点的验证速度,这就需要能够在复杂生物系统中以时间和剂量依赖的方式精确控制靶点功能的小分子。在这篇综述中,我们描述了一种在学术性生物医学研究中整合小分子发现与化学的过程,理想情况下,这种过程将把针对新分子靶点的创新方法、现有的基础和临床研究、筛选基础设施以及合成与药物化学等要素结合起来,以跟进小分子活性物质。多学科资源和专业知识的这种整合将使学术研究人员能够发现新型小分子,有望促进他们在机制研究和新药靶点验证方面的工作。更广泛地说,学术性药物研发应该为治疗难治性人类疾病,特别是罕见病,贡献新的药物实体,并有望与商业部门形成刺激和协同效应。