Pandhal Jagroop, Noirel Josselin
Department of Chemical and Biological Engineering, ChELSI Institute, University of Sheffield, Mappin Street, Sheffield, S1 3JD, UK,
Biotechnol Lett. 2014 Jun;36(6):1141-51. doi: 10.1007/s10529-014-1480-y. Epub 2014 Feb 22.
Most highly controlled and specific applications of microorganisms in biotechnology involve pure cultures. Maintaining single strain cultures is important for industry as contaminants can reduce productivity and lead to longer "down-times" during sterilisation. However, microbes working together provide distinct advantages over pure cultures. They can undertake more metabolically complex tasks, improve efficiency and even expand applications to open systems. By combining rapidly advancing technologies with ecological theory, the use of microbial ecosystems in biotechnology will inevitably increase. This review provides insight into the use of synthetic microbial communities in biotechnology by applying the engineering paradigm of measure, model, manipulate and manufacture, and illustrate the emerging wider potential of the synthetic ecology field. Systems to improve biofuel production using microalgae are also discussed.
在生物技术中,对微生物进行的大多数高度可控且特定的应用都涉及纯培养物。维持单菌株培养物对工业而言很重要,因为污染物会降低生产力,并导致灭菌期间更长的“停机时间”。然而,微生物协同作用比纯培养物具有明显优势。它们能够承担代谢更复杂的任务,提高效率,甚至将应用扩展到开放系统。通过将快速发展的技术与生态学理论相结合,微生物生态系统在生物技术中的应用将不可避免地增加。本综述通过应用测量、建模、操控和制造的工程范式,深入探讨了合成微生物群落在生物技术中的应用,并阐述了合成生态学领域新出现的更广泛潜力。还讨论了利用微藻提高生物燃料产量的系统。