Relation between rotation of MreB actin and cell width of Escherichia coli
Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. Although the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several...
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Published in | Genes to cells : devoted to molecular & cellular mechanisms Vol. 24; no. 3; pp. 259 - 265 |
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Main Authors | , , , |
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Language | English |
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01.03.2019
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Abstract | Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. Although the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several point mutations in mreB that affect cell width have been identified. The MreB protein forms clusters or polymers in the cell and moves along annular tracks perpendicular to the long axis. This rotation is coupled with peptidoglycan synthesis. Here, we focused on two MreB mutants, MreBA125V and MreBA174T. Cells producing MreBA125V and MreBA174T were thinner and thicker than WT cells, and MreBA125V and MreBA174T rotated faster and slower than WT MreB, respectively. We observed that the rotation rate correlated with the cell wall synthesis rate. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is.
Cells producing MreBA125V and MreBA174T were thinner and thicker than WT cells, and MreBA125V and MreBA174T rotated faster and slower than WT MreB, respectively. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is. |
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AbstractList | Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. Although the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several point mutations in mreB that affect cell width have been identified. The MreB protein forms clusters or polymers in the cell and moves along annular tracks perpendicular to the long axis. This rotation is coupled with peptidoglycan synthesis. Here, we focused on two MreB mutants, MreBA125V and MreBA174T. Cells producing MreBA125V and MreBA174T were thinner and thicker than WT cells, and MreBA125V and MreBA174T rotated faster and slower than WT MreB, respectively. We observed that the rotation rate correlated with the cell wall synthesis rate. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is. Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. While the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several point mutations in mreB that affect cell width have been identified. The MreB protein forms clusters or polymers in the cell and moves along annular tracks perpendicular to the long axis. This rotation is coupled with peptidoglycan synthesis. Here, we focused on two MreB mutants, MreB and MreB . Cells producing MreB and MreB were thinner and thicker than WT cells, and MreB and MreB rotated faster and slower than WT MreB, respectively. We observed that the rotation rate correlated with the cell wall synthesis rate. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster MreB rotates, the thinner the cell width is. This article is protected by copyright. All rights reserved. Abstract Bacterial cells, including Escherichia coli and Bacillus subtilis , continuously elongate and divide. Although the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several point mutations in mreB that affect cell width have been identified. The MreB protein forms clusters or polymers in the cell and moves along annular tracks perpendicular to the long axis. This rotation is coupled with peptidoglycan synthesis. Here, we focused on two MreB mutants, MreB A125V and MreB A174T . Cells producing MreB A125V and MreB A174T were thinner and thicker than WT cells, and MreB A125V and MreB A174T rotated faster and slower than WT MreB, respectively. We observed that the rotation rate correlated with the cell wall synthesis rate. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is. Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. Although the cell width is maintained during cell cycle, the molecular mechanisms involved in its regulation remain unknown. MreB has been implicated to play a role in maintaining cell width. Several point mutations in mreB that affect cell width have been identified. The MreB protein forms clusters or polymers in the cell and moves along annular tracks perpendicular to the long axis. This rotation is coupled with peptidoglycan synthesis. Here, we focused on two MreB mutants, MreBA125V and MreBA174T. Cells producing MreBA125V and MreBA174T were thinner and thicker than WT cells, and MreBA125V and MreBA174T rotated faster and slower than WT MreB, respectively. We observed that the rotation rate correlated with the cell wall synthesis rate. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is. Cells producing MreBA125V and MreBA174T were thinner and thicker than WT cells, and MreBA125V and MreBA174T rotated faster and slower than WT MreB, respectively. Thus, we conclude that the velocity of MreB rotation also affects cell width, that is, the faster the MreB rotates, the thinner the cell width is. |
Author | Shiomi, Daisuke Kurita, Keisuke Tabei, Tsutomu Shin, Ryota |
Author_xml | – sequence: 1 givenname: Keisuke surname: Kurita fullname: Kurita, Keisuke organization: Rikkyo University – sequence: 2 givenname: Ryota surname: Shin fullname: Shin, Ryota organization: Rikkyo University – sequence: 3 givenname: Tsutomu surname: Tabei fullname: Tabei, Tsutomu organization: Rikkyo University – sequence: 4 givenname: Daisuke orcidid: 0000-0002-8558-7175 surname: Shiomi fullname: Shiomi, Daisuke email: dshiomi@rikkyo.ac.jp organization: Rikkyo University |
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Snippet | Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. Although the cell width is maintained during cell cycle,... Bacterial cells, including Escherichia coli and Bacillus subtilis, continuously elongate and divide. While the cell width is maintained during cell cycle, the... Abstract Bacterial cells, including Escherichia coli and Bacillus subtilis , continuously elongate and divide. Although the cell width is maintained during... |
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SubjectTerms | Actin bacterial actin Cell cycle cell shape Cell walls cell width E coli Escherichia coli Molecular modelling Peptidoglycans Polymers |
Title | Relation between rotation of MreB actin and cell width of Escherichia coli |
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