AbstractThe Min system of proteins, consisting of MinC, MinD and MinE, is essential for normal cell division in Escherichia coli. MinC forms a polar gradient to restrict placement of the division septum to midcell. MinC localization occurs through a direct interaction with MinD, a membrane-associating Par-like ATPase. MinE stimulates ATP hydrolysis by MinD, thereby releasing MinD from the membrane. Here, we show that MinD forms polymers with MinC and ATP without the addition of phospholipids. The topological regulator MinE induces disassembly of MinCD polymers. Two MinD mutant proteins, MinD(K11A) and MinD(ΔMTS15), are unable to form polymers with MinC
The MinD ATPase is critical to the oscillation of the Min proteins, which limits formation of the Z ...
Symmetric cell division in gram-negative bacteria is essential for generating two equal-sized daught...
Gram-negative bacteria such as Escherichia coli and Neisseria gonorrhea undergo symmetric cell divis...
The Min system of proteins, consisting of MinC, MinD and MinE, is essential for normal cell division...
AbstractThe Min system of proteins, consisting of MinC, MinD and MinE, is essential for normal cell ...
The min system comprised of MinC, MinD, and MinE in Escherichia coli ensures that cell division occu...
The Min system, constituting MinC, MinD, and MinE proteins plays an essential role in regulating cel...
Cell division in Escherichia coli depends on mechanisms to spatially and temporally regulate selecti...
The Min system in Escherichia coli, consisting of MinC, MinD, and MinE proteins, regulates division ...
Escherichia coli cells contain potential division sites at midcell and adjacent to the cell poles. S...
AbstractIn Escherichia coli, the location of the site for cell division is regulated by the action o...
Cytokinesis in bacteria is a complex process subject to precise spatiotemporal regulations. In E. co...
Bacterial cell division requires formation of the cytokinetic cell division septum at the mid-cell p...
AbstractThe MinCDE system regulates the position of the division plane in rod-shaped bacteria. New r...
MinD recruits MinE to the membrane leading to a coupled oscillation required for spatial regulation ...
The MinD ATPase is critical to the oscillation of the Min proteins, which limits formation of the Z ...
Symmetric cell division in gram-negative bacteria is essential for generating two equal-sized daught...
Gram-negative bacteria such as Escherichia coli and Neisseria gonorrhea undergo symmetric cell divis...
The Min system of proteins, consisting of MinC, MinD and MinE, is essential for normal cell division...
AbstractThe Min system of proteins, consisting of MinC, MinD and MinE, is essential for normal cell ...
The min system comprised of MinC, MinD, and MinE in Escherichia coli ensures that cell division occu...
The Min system, constituting MinC, MinD, and MinE proteins plays an essential role in regulating cel...
Cell division in Escherichia coli depends on mechanisms to spatially and temporally regulate selecti...
The Min system in Escherichia coli, consisting of MinC, MinD, and MinE proteins, regulates division ...
Escherichia coli cells contain potential division sites at midcell and adjacent to the cell poles. S...
AbstractIn Escherichia coli, the location of the site for cell division is regulated by the action o...
Cytokinesis in bacteria is a complex process subject to precise spatiotemporal regulations. In E. co...
Bacterial cell division requires formation of the cytokinetic cell division septum at the mid-cell p...
AbstractThe MinCDE system regulates the position of the division plane in rod-shaped bacteria. New r...
MinD recruits MinE to the membrane leading to a coupled oscillation required for spatial regulation ...
The MinD ATPase is critical to the oscillation of the Min proteins, which limits formation of the Z ...
Symmetric cell division in gram-negative bacteria is essential for generating two equal-sized daught...
Gram-negative bacteria such as Escherichia coli and Neisseria gonorrhea undergo symmetric cell divis...