Skaggs School of Pharmacy and Pharmaceutical Sciences, University of California, San Diego, California, USA.
Nat Chem Biol. 2011 Dec 15;8(1):26-35. doi: 10.1038/nchembio.739.
The function of microbial interactions is to enable microorganisms to survive by establishing a homeostasis between microbial neighbors and local environments. A microorganism can respond to environmental stimuli using metabolic exchange-the transfer of molecular factors, including small molecules and proteins. Microbial interactions not only influence the survival of the microbes but also have roles in morphological and developmental processes of the organisms themselves and their neighbors. This, in turn, shapes the entire habitat of these organisms. Here we highlight our current understanding of metabolic exchange as well as the emergence of new technologies that are allowing us to eavesdrop on microbial conversations comprising dozens to hundreds of secreted metabolites that control the behavior, survival and differentiation of members of the community. The goal of the rapidly advancing field studying multifactorial metabolic exchange is to devise a microbial 'Rosetta stone' in order to understand the language by which microbial interactions are negotiated and, ultimately, to control the outcome of these conversations.
微生物相互作用的功能是通过在微生物邻居和局部环境之间建立体内平衡来使微生物存活。微生物可以通过代谢交换——包括小分子和蛋白质等分子因素的转移来对环境刺激做出反应。微生物相互作用不仅影响微生物的存活,而且在生物体自身及其邻居的形态和发育过程中也起着作用。这反过来又塑造了这些生物体的整个栖息地。在这里,我们强调了我们对代谢交换的理解,以及新技术的出现,这些技术使我们能够窃听由数十到数百种控制群落成员行为、生存和分化的分泌代谢物组成的微生物对话。研究多因素代谢交换的快速发展领域的目标是设计一种微生物“罗塞塔石碑”,以便理解微生物相互作用的谈判语言,并最终控制这些对话的结果。