Millius Arthur, Ueda Hiroki R
Laboratory for Synthetic Biology, RIKEN Quantitative Biology Center , Suita, Osaka , Japan.
Laboratory for Synthetic Biology, RIKEN Quantitative Biology Center, Suita, Osaka, Japan; Department of Systems Pharmacology, Graduate School of Medicine, The University of Tokyo, Tokyo, Japan.
Front Neurol. 2017 Feb 6;8:25. doi: 10.3389/fneur.2017.00025. eCollection 2017.
A systems approach to studying biology uses a variety of mathematical, computational, and engineering tools to holistically understand and model properties of cells, tissues, and organisms. Building from early biochemical, genetic, and physiological studies, systems biology became established through the development of genome-wide methods, high-throughput procedures, modern computational processing power, and bioinformatics. Here, we highlight a variety of systems approaches to the study of biological rhythms that occur with a 24-h period-circadian rhythms. We review how systems methods have helped to elucidate complex behaviors of the circadian clock including temperature compensation, rhythmicity, and robustness. Finally, we explain the contribution of systems biology to the transcription-translation feedback loop and posttranslational oscillator models of circadian rhythms and describe new technologies and "-omics" approaches to understand circadian timekeeping and neurophysiology.
一种研究生物学的系统方法使用各种数学、计算和工程工具,以全面理解和模拟细胞、组织和生物体的特性。从早期的生物化学、遗传学和生理学研究发展而来,系统生物学通过全基因组方法、高通量程序、现代计算处理能力和生物信息学的发展而确立。在这里,我们重点介绍了多种用于研究以24小时为周期发生的生物节律——昼夜节律的系统方法。我们回顾了系统方法如何帮助阐明生物钟的复杂行为,包括温度补偿、节律性和稳健性。最后,我们解释了系统生物学对昼夜节律的转录-翻译反馈环和翻译后振荡器模型的贡献,并描述了用于理解昼夜计时和神经生理学的新技术和“组学”方法。