Filamentous morphology engineering of bacteria by iron metabolism modulation through MagR expression

IF 4.4 2区 生物学 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Mengke Wei , Chenyang Han , Xiujuan Zhou , Tianyang Tong , Jing Zhang , Xinmiao Ji , Peng Zhang , Yanqi Zhang , Yan Liu , Xin Zhang , Tiantian Cai , Can Xie
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引用次数: 0

Abstract

The morphology is the consequence of evolution and adaptation. Escherichia coli is rod-shaped bacillus with regular dimension of about 1.5 μm long and 0.5 μm wide. Many shape-related genes have been identified and used in morphology engineering of this bacteria. However, little is known about if specific metabolism and metal irons could modulate bacteria morphology. Here in this study, we discovered filamentous shape change of E. coli cells overexpressing pigeon MagR, a putative magnetoreceptor and extremely conserved iron-sulfur protein. Comparative transcriptomic analysis strongly suggested that the iron metabolism change and iron accumulation due to the overproduction of MagR was the key to the morphological change. This model was further validated, and filamentous morphological change was also achieved by supplement E. coli cells with iron in culture medium or by increase the iron uptake genes such as entB and fepA. Our study extended our understanding of morphology regulation of bacteria, and may also serves as a prototype of morphology engineering by modulating the iron metabolism.

通过表达 MagR 调节铁代谢,实现细菌的丝状形态工程
形态是进化和适应的结果。大肠杆菌是棒状杆菌,长约 1.5 μm,宽约 0.5 μm。已发现许多与形状有关的基因,并将其用于这种细菌的形态工程。然而,人们对特定代谢和金属铁是否能调节细菌形态知之甚少。在本研究中,我们发现了过量表达鸽MagR的大肠杆菌细胞的丝状形态变化,MagR是一种推定的磁感受器和极其保守的铁硫蛋白。比较转录组分析有力地表明,MagR的过量表达导致的铁代谢变化和铁积累是形态变化的关键。这一模型得到了进一步验证,通过在培养基中添加铁元素或增加铁吸收基因(如 entB 和 fepA),大肠杆菌细胞也能发生丝状形态变化。我们的研究扩展了我们对细菌形态调控的理解,也可作为通过调节铁代谢实现形态工程的原型。
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来源期刊
Synthetic and Systems Biotechnology
Synthetic and Systems Biotechnology BIOTECHNOLOGY & APPLIED MICROBIOLOGY-
CiteScore
6.90
自引率
12.50%
发文量
90
审稿时长
67 days
期刊介绍: Synthetic and Systems Biotechnology aims to promote the communication of original research in synthetic and systems biology, with strong emphasis on applications towards biotechnology. This journal is a quarterly peer-reviewed journal led by Editor-in-Chief Lixin Zhang. The journal publishes high-quality research; focusing on integrative approaches to enable the understanding and design of biological systems, and research to develop the application of systems and synthetic biology to natural systems. This journal will publish Articles, Short notes, Methods, Mini Reviews, Commentary and Conference reviews.
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