Koutinas Michalis, Kiparissides Alexandros, Pistikopoulos Efstratios N, Mantalaris Athanasios
Department of Environmental Science and Technology, Cyprus University of Technology, 95 Irinis Street, 3041, Limassol, Cyprus.
Centre for Process Systems Engineering, Department of Chemical Engineering, South Kensington Campus, Imperial College London, SW7 2AZ, London, United Kingdom.
Comput Struct Biotechnol J. 2013 Mar 10;3:e201210022. doi: 10.5936/csbj.201210022. eCollection 2012.
The complexity of the regulatory network and the interactions that occur in the intracellular environment of microorganisms highlight the importance in developing tractable mechanistic models of cellular functions and systematic approaches for modelling biological systems. To this end, the existing process systems engineering approaches can serve as a vehicle for understanding, integrating and designing biological systems and processes. Here, we review the application of a holistic approach for the development of mathematical models of biological systems, from the initial conception of the model to its final application in model-based control and optimisation. We also discuss the use of mechanistic models that account for gene regulation, in an attempt to advance the empirical expressions traditionally used to describe micro-organism growth kinetics, and we highlight current and future challenges in mathematical biology. The modelling research framework discussed herein could prove beneficial for the design of optimal bioprocesses, employing rational and feasible approaches towards the efficient production of chemicals and pharmaceuticals.
微生物细胞内环境中发生的调控网络复杂性和相互作用凸显了开发易于处理的细胞功能机制模型以及生物系统建模系统方法的重要性。为此,现有的过程系统工程方法可作为理解、整合和设计生物系统及过程的工具。在此,我们回顾一种整体方法在生物系统数学模型开发中的应用,从模型的初始构思到其在基于模型的控制和优化中的最终应用。我们还讨论了考虑基因调控的机制模型的使用,试图改进传统上用于描述微生物生长动力学的经验表达式,并强调数学生物学当前和未来面临的挑战。本文讨论的建模研究框架可能对设计最优生物过程有益,采用合理可行的方法实现化学品和药物的高效生产。