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Modeling in biological chemistry.From biochemical kinetics to systems biology

机译:从生物化学动力学到系统生物学的生物化学建模

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A brief review on biochemical kinetics in the twentieth century mainly concerned with enzyme kinetics and cooperative processes is presented.Molecular biology and,in particular,structural biology provided the basis for modeling biological phenomena at the molecular level.Structure was recognized as the ultimate and only level at which biological processes find an explanation that is satisfactory for chemists and physicists.A new epoch in biology was initiated by successful extensions of the molecular approach from individual molecules and reactions to the cellular and organismic level.Starting with sequencing of whole genomes in the 1980s more and more techniques became available that are suitable for upscaling from molecules to cells.A series of research programs was initiated:genomics dealing with sequencing the DNA of whole organisms,proteomics considering all proteins of a cell and their interactions,metabolomics studying all metabolic reactions of a cell or an organism,and functional genomics or systems biology aiming at an exploration of the dynamics of complete biological entities.At the same time computational facilities have experienced an unexpected development in speed of calculations and storing devices.At present computer simulations of whole cells at molecular resolution are within reach.The challenge for the theorist in biology is to develop methods for handling the enormously complex networks of gene regulation and metabolism in such a way that biological questions can be addressed.This goal cannot be achieved by dynamical systems theory alone.What is needed is a joint effort from different mathematical disciplines supported by empirical knowledge and tools from discrete mathematics to informatics.Two sections with selected examples from our own laboratory dealing with structural bioinformatics of RNA and with a dynamical systems approach to gene regulation are added.
机译:简要概述了二十世纪的生化动力学,主要涉及酶的动力学和协同过程。分子生物学,尤其是结构生物学为在分子水平上模拟生物现象提供了基础。结构被认为是最终且唯一的在生物学过程中找到对化学家和物理学家满意的解释的水平。生物学的新纪元是通过分子方法从单个分子的成功扩展到细胞和有机体水平而开始的。 1980年代,越来越多的技术适用于从分子到细胞的升级。开始了一系列研究计划:处理整个生物体DNA测序的基因组学,考虑细胞中所有蛋白质及其相互作用的蛋白质组学,研究所有代谢的代谢组学细胞或生物体与功能的反应旨在探索完整生物实体动力学的最终基因组学或系统生物学。与此同时,计算设备在计算和存储设备的速度方面取得了出乎意料的发展。目前,可以分子分辨率进行全细胞的计算机模拟已经可以实现。生物学理论家面临的挑战是开发一种处理基因调控和代谢极其复杂的网络的方法,以解决生物学问题,而仅靠动力学系统理论无法实现这一目标。增加了来自不同数学学科的努力,并获得了从离散数学到信息学的经验知识和工具的支持。我们添加了两个部分,分别是我们自己实验室中处理RNA的结构生物信息学和采用动态系统方法进行基因调控的示例。

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