Oliver Stephen G
Department of Biochemistry, University of Cambridge, Cambridge, UK.
Cambridge Systems Biology Centre, University of Cambridge, Cambridge, UK.
Methods Mol Biol. 2019;2049:3-13. doi: 10.1007/978-1-4939-9736-7_1.
Research on yeast has produced a plethora of tools and resources that have been central to the progress of systems biology. This chapter reviews these resources, explains the innovations that have been made since the first edition of this book, and introduces the constituent chapters of the current edition. The value of these resources not only in building and testing models of the functional networks of the yeast cell, but also in providing a foundation for network studies on the molecular basis of complex human diseases is considered. The gaps in this vast compendium of data, including enzyme kinetic characteristics, biomass composition, transport processes, and cell-cell interactions are discussed, as are the interactions between yeast cells and those of other species. The relevance of these studies to both traditional and advanced biotechnologies and to human medicine is considered, and the opportunities and challenges in using unicellular yeasts to model the systems of multicellular organisms are presented.
对酵母的研究产生了大量工具和资源,这些对于系统生物学的进展至关重要。本章回顾了这些资源,解释了自本书第一版以来所取得的创新,并介绍了当前版本的各组成章节。不仅考虑了这些资源在构建和测试酵母细胞功能网络模型方面的价值,还考虑了其为基于复杂人类疾病分子基础的网络研究提供基础的价值。讨论了这一庞大数据集存在的差距,包括酶动力学特性、生物量组成、运输过程和细胞间相互作用,以及酵母细胞与其他物种细胞之间的相互作用。探讨了这些研究与传统和先进生物技术以及人类医学的相关性,并阐述了利用单细胞酵母模拟多细胞生物体系统所面临的机遇和挑战。