Department of Genome Sciences, University of Washington, Seattle, WA 98195, USA.
Adv Exp Med Biol. 2012;751:329-45. doi: 10.1007/978-1-4614-3567-9_15.
The structure of complex biological systems reflects not only their function but also the environments in which they evolved and are adapted to. Reverse Ecology-an emerging new frontier in Evolutionary Systems Biology-aims to extract this information and to obtain novel insights into an organism's ecology. The Reverse Ecology framework facilitates the translation of high-throughput genomic data into large-scale ecological data, and has the potential to transform ecology into a high-throughput field. In this chapter, we describe some of the pioneering work in Reverse Ecology, demonstrating how system-level analysis of complex biological networks can be used to predict the natural habitats of poorly characterized microbial species, their interactions with other species, and universal patterns governing the adaptation of organisms to their environments. We further present several studies that applied Reverse Ecology to elucidate various aspects of microbial ecology, and lay out exciting future directions and potential future applications in biotechnology, biomedicine, and ecological engineering.
复杂生物系统的结构不仅反映了它们的功能,还反映了它们进化和适应的环境。反向生态学——进化系统生物学的一个新兴前沿领域——旨在提取这些信息,并深入了解生物体的生态学。反向生态学框架促进了将高通量基因组数据转化为大规模生态数据,并有潜力将生态学转变为一个高通量领域。在本章中,我们描述了反向生态学的一些开创性工作,展示了如何使用复杂生物网络的系统级分析来预测特征较差的微生物物种的自然栖息地、它们与其他物种的相互作用以及生物体适应环境的普遍模式。我们还介绍了几项应用反向生态学阐明微生物生态学各个方面的研究,并提出了生物技术、生物医学和生态工程中令人兴奋的未来方向和潜在应用。