Parages María L, Gutiérrez-Barranquero José A, Reen F Jerry, Dobson Alan D W, O'Gara Fergal
BIOMERIT Research Centre, School of Microbiology, University College Cork, National University of Ireland, Cork, Ireland.
School of Microbiology, University College Cork, Cork, Ireland.
Mar Drugs. 2016 Mar 21;14(3):62. doi: 10.3390/md14030062.
In recent years, the marine environment has been the subject of increasing attention from biotechnological and pharmaceutical industries as a valuable and promising source of novel bioactive compounds. Marine biodiscovery programmes have begun to reveal the extent of novel compounds encoded within the enormous bacterial richness and diversity of the marine ecosystem. A combination of unique physicochemical properties and spatial niche-specific substrates, in wide-ranging and extreme habitats, underscores the potential of the marine environment to deliver on functionally novel biocatalytic activities. With the growing need for green alternatives to industrial processes, and the unique transformations which nature is capable of performing, marine biocatalysts have the potential to markedly improve current industrial pipelines. Furthermore, biocatalysts are known to possess chiral selectivity and specificity, a key focus of pharmaceutical drug design. In this review, we discuss how the explosion in genomics based sequence analysis, allied with parallel developments in synthetic and molecular biology, have the potential to fast-track the discovery and subsequent improvement of a new generation of marine biocatalysts.
近年来,海洋环境作为新型生物活性化合物的宝贵且有前景的来源,受到了生物技术和制药行业越来越多的关注。海洋生物发现计划已开始揭示海洋生态系统中丰富多样的细菌所编码的新型化合物的程度。在广泛而极端的栖息地中,独特的物理化学性质和特定空间生态位的底物相结合,凸显了海洋环境产生功能新颖的生物催化活性的潜力。随着对工业过程绿色替代方案的需求不断增长,以及自然界能够进行的独特转化,海洋生物催化剂有潜力显著改善当前的工业流程。此外,已知生物催化剂具有手性选择性和特异性,这是药物设计的关键重点。在本综述中,我们讨论了基于基因组学的序列分析的爆发,以及合成生物学和分子生物学的并行发展,如何有可能快速推动新一代海洋生物催化剂的发现及后续改进。