Children's Hospital Informatics Program, Harvard/MITDivision of Health Sciences and Technology, USA.
Brief Bioinform. 2010 Jan;11(1):80-95. doi: 10.1093/bib/bbp054. Epub 2009 Nov 11.
The field of synthetic biology holds an inspiring vision for the future; it integrates computational analysis, biological data and the systems engineering paradigm in the design of new biological machines and systems. These biological machines are built from basic biomolecular components analogous to electrical devices, and the information flow among these components requires the augmentation of biological insight with the power of a formal approach to information management. Here we review the informatics challenges in synthetic biology along three dimensions: in silico, in vitro and in vivo. First, we describe state of the art of the in silico support of synthetic biology, from the specific data exchange formats, to the most popular software platforms and algorithms. Next, we cast in vitro synthetic biology in terms of information flow, and discuss genetic fidelity in DNA manipulation, development strategies of biological parts and the regulation of biomolecular networks. Finally, we explore how the engineering chassis can manipulate biological circuitries in vivo to give rise to future artificial organisms.
合成生物学领域为未来描绘了一幅鼓舞人心的蓝图;它将计算分析、生物数据和系统工程范式集成到新的生物机器和系统的设计中。这些生物机器是由类似于电子设备的基本生物分子组件构建而成的,而这些组件之间的信息流需要用正式的信息管理方法来增强生物学洞察力。在这里,我们沿着三个维度综述了合成生物学中的信息学挑战:计算机模拟、体外和体内。首先,我们描述了计算机模拟对合成生物学的支持的最新进展,包括特定的数据交换格式、最流行的软件平台和算法。其次,我们将体外合成生物学从信息流的角度进行了描述,并讨论了 DNA 操作中的遗传保真度、生物部件的开发策略以及生物分子网络的调控。最后,我们探讨了工程底盘如何在体内操纵生物电路,从而产生未来的人工生物。