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在蓝藻集胞藻中异源合成香叶基芳樟醇,一种二萜醇植物产物。

Heterologous synthesis of geranyllinalool, a diterpenol plant product, in the cyanobacterium Synechocystis.

机构信息

Plant and Microbial Biology, University of California, 111 Koshland Hall, Berkeley, CA, 94720-3102, USA.

出版信息

Appl Microbiol Biotechnol. 2017 Apr;101(7):2791-2800. doi: 10.1007/s00253-016-8081-8. Epub 2017 Jan 6.

DOI:10.1007/s00253-016-8081-8
PMID:28062974
Abstract

Cyanobacteria are industrially robust photosynthetic microorganisms that can be genetically programmed to synthesize commodity products for domestic and industrial consumption. In the present work, Synechocystis was endowed with the synthesis of the plant secondary metabolite geranyllinalool, a diterpene alcohol of commercial interest. Total average yields of 360 μg of geranyllinalool per gram of dry cell weight were obtained in the course of a 48-h cultivation period. Geranyllinalool was primarily sequestered inside the transformant cells, corresponding to 60-70% of the total heterologous product, instead of being entirely exuded, as the case is with shorter heterologous terpene hydrocarbons. Extraction of geranyllinalool necessitated disruption of the cells in order to release and isolate this chemical product. Moreover, geranyllinalool accumulation in the cells caused a mild inhibitory effect on cell fitness and biomass growth rate, such that the duplication time of Synechocystis transformants was 1.4-fold longer than that of the control. The remaining 30-40% of the geranyllinalool product was found to float on the surface of sealed transformant cultures, where it was siphoned off by applying a hydrophobic overlayer, with no need to disrupt the cells in this case. Concluding, the work extended efforts to heterologously produce terpene and terpenol products in cyanobacteria, and addressed possibilities and constrains inherent to this production system.

摘要

蓝藻是工业上强大的光合微生物,可以通过基因编程来合成用于家庭和工业消费的商品。在本工作中,Synechocystis 被赋予了合成植物次生代谢产物香叶基芳樟醇的能力,这是一种具有商业价值的二萜醇。在 48 小时的培养期间,每克干细胞重量获得了 360μg 的香叶基芳樟醇的总平均产量。香叶基芳樟醇主要被隔离在转化细胞内,占总异源产物的 60-70%,而不是像较短的异源萜烯碳氢化合物那样完全被排出。提取香叶基芳樟醇需要破坏细胞以释放和分离这种化学产物。此外,香叶基芳樟醇在细胞中的积累对细胞适应性和生物量生长速率产生了轻微的抑制作用,使得 Synechocystis 转化体的倍增时间比对照延长了 1.4 倍。发现剩余的 30-40%的香叶基芳樟醇产物漂浮在密封的转化体培养物的表面上,在这种情况下,可以通过施加疏油层将其虹吸出来,而无需在此情况下破坏细胞。总之,这项工作扩展了在蓝藻中异源生产萜烯和萜醇产物的努力,并解决了这个生产系统固有的可能性和限制。

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