大肠杆菌
代谢工程
合成生物学
代谢途径
生物
转化(遗传学)
人口
系统生物学
生物化学
生物技术
计算生物学
生化工程
微生物学
基因
人口学
社会学
工程类
作者
Runze Pan,Xinyi Yang,Min Qiu,Wankui Jiang,Wenming Zhang,Yujia Jiang,Fengxue Xin,Min Jiang
标识
DOI:10.1021/acssynbio.3c00329
摘要
Microbial synthesis of target chemicals usually involves multienzymatic reactions in vivo, especially for compounds with a long metabolic pathway. However, when various genes are introduced into one single strain, it leads to a heavy metabolic burden. In contrast, the microbial coculture system can allocate metabolic pathways into different hosts, which will relieve the metabolic burdens. Escherichia coli is the most used chassis to synthesize biofuels and chemicals owing to its well-known genetics, high transformation efficiency, and easy cultivation. Accordingly, cocultures containing the cooperative E. coli with other microbial species have received great attention. In this review, the individual applications and boundedness of different combinations will be summarized. Additionally, the strategies for the self-regulation of population composition, which can help enhance the stability of a coculture system, will also be discussed. Finally, perspectives for the cocultures will be proposed.
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