Janes Kevin A, Chandran Preethi L, Ford Roseanne M, Lazzara Matthew J, Papin Jason A, Peirce Shayn M, Saucerman Jeffrey J, Lauffenburger Douglas A
Department of Biomedical Engineering, University of Virginia, Charlottesville, VA 22908, USA.
Integr Biol (Camb). 2017 Jul 17;9(7):574-583. doi: 10.1039/c7ib00014f.
Measuring and modeling the integrated behavior of biomolecular-cellular networks is central to systems biology. Over several decades, systems biology has been shaped by quantitative biologists, physicists, mathematicians, and engineers in different ways. However, the basic and applied versions of systems biology are not typically distinguished, which blurs the separate aspirations of the field and its potential for real-world impact. Here, we articulate an engineering approach to systems biology, which applies educational philosophy, engineering design, and predictive models to solve contemporary problems in an age of biomedical Big Data. A concerted effort to train systems bioengineers will provide a versatile workforce capable of tackling the diverse challenges faced by the biotechnological and pharmaceutical sectors in a modern, information-dense economy.
测量和模拟生物分子 - 细胞网络的整合行为是系统生物学的核心。几十年来,定量生物学家、物理学家、数学家和工程师以不同方式塑造了系统生物学。然而,系统生物学的基础版本和应用版本通常没有区分开来,这模糊了该领域各自的目标及其对现实世界产生影响的潜力。在此,我们阐述一种系统生物学的工程学方法,该方法应用教育理念、工程设计和预测模型来解决生物医学大数据时代的当代问题。齐心协力培养系统生物工程师将造就一支具备多种能力的劳动力队伍,能够应对现代信息密集型经济中生物技术和制药行业所面临的各种挑战。