Castrillo Juan I, Oliver Stephen G
School of Biological Sciences, University of Manchester, 2205 Stopford Building, Oxford Road, Manchester M13 9PT, UK.
J Biochem Mol Biol. 2004 Jan 31;37(1):93-106. doi: 10.5483/bmbrep.2004.37.1.093.
The new complexity arising from the genome sequencing projects requires new comprehensive post-genomic strategies: advanced studies in regulatory mechanisms, application of new high-throughput technologies at a genome-wide scale, at the different levels of cellular complexity (genome, transcriptome, proteome and metabolome), efficient analysis of the results, and application of new bioinformatic methods in an integrative or systems biology perspective. This can be accomplished in studies with model organisms under controlled conditions. In this review a perspective of the favourable characteristics of yeast as a touchstone model in post-genomic research is presented. The state-of-the art, latest advances in the field and bottlenecks, new strategies, new regulatory mechanisms, applications (patents) and high-throughput technologies, most of them being developed and validated in yeast, are presented. The optimal characteristics of yeast as a well-defined system for comprehensive studies under controlled conditions makes it a perfect model to be used in integrative, "systems biology" studies to get new insights into the mechanisms of regulation (regulatory networks) responsible of specific phenotypes under particular environmental conditions, to be applied to more complex organisms (e.g. plants, human).
开展调控机制的深入研究,在全基因组范围内、细胞复杂性的不同层面(基因组、转录组、蛋白质组和代谢组)应用新的高通量技术,对结果进行有效分析,并从整合生物学或系统生物学的角度应用新的生物信息学方法。这可以在可控条件下对模式生物的研究中实现。在这篇综述中,我们阐述了酵母作为后基因组研究试金石模型的有利特性。文中介绍了该领域的最新进展、前沿成果、瓶颈问题、新策略、新调控机制、应用(专利)以及高通量技术,其中大部分都是在酵母中开发和验证的。酵母作为一个在可控条件下进行全面研究的明确系统,其最佳特性使其成为进行整合性“系统生物学”研究的理想模型,有助于深入了解特定环境条件下导致特定表型的调控机制(调控网络),并应用于更复杂的生物体(如植物、人类)。