Program for Computational Biology, Memorial Sloan Kettering Cancer Center, New York, NY 10065.
Microbiol Spectr. 2016 Jun;4(3). doi: 10.1128/microbiolspec.VMBF-0019-2015.
The study of microbial pathogenesis has been primarily a reductionist science since Koch's principles. Reductionist approaches are essential to identify the causal agents of infectious disease, their molecular mechanisms of action, and potential drug targets, and much of medicine's success in the treatment of infectious disease stems from that approach. But many bacteria-caused diseases cannot be explained by a single bacterium. Several aspects of bacterial pathogenesis will benefit from a more holistic approach that takes into account social interaction among bacteria of the same species and between species in consortia such as the human microbiome. The emerging discipline of sociomicrobiology provides a framework to dissect microbial interactions in single and multi-species communities without compromising mechanistic detail. The study of bacterial pathogenesis can benefit greatly from incorporating concepts from other disciplines such as social evolution theory and microbial ecology, where communities, their interactions with hosts, and with the environment play key roles.
自科赫原则以来,微生物发病机制的研究主要是一种还原论科学。还原论方法对于确定传染病的病原体、它们的作用分子机制以及潜在的药物靶点至关重要,医学在传染病治疗方面的许多成功都源于这种方法。但是,许多由细菌引起的疾病不能仅用一种细菌来解释。细菌发病机制的几个方面将受益于更全面的方法,该方法考虑到同种细菌之间以及人类微生物组等联合体中物种之间的社会相互作用。新兴的社会微生物学学科为剖析单种和多种物种群落中的微生物相互作用提供了一个框架,而不会影响机械细节。将来自其他学科的概念(如社会进化理论和微生物生态学)纳入细菌发病机制的研究中,可以带来很大的好处,因为在这些学科中,群落及其与宿主和环境的相互作用起着关键作用。