The Escherichia coli Min proteins select the cell middle for division by oscillating between the cell poles where they inhibit the divisome protein FtsZ. Reconstitution of Min proteins on a lipid membrane in vitro yields their self-organization into surface waves. In biomimetic compartments, pole-to-pole oscillations can be obtained which direct FtsZ to the middle. This establishes bottom-up synthetic biology as a promising approach to reconstitute complex dynamics and spatial cues in vitro
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...
Intracellular protein gradients are significant determinants of spatial organization. However, littl...
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...
The Escherichia coli Min proteins select the cell middle for division by oscillating between the cel...
The MinCDE protein system from Escherichia coli has become one of the most striking paradigms of pro...
The Min biochemical network regulates bacterial cell division and is a prototypical example of self-...
Bacterial cell division is arguably one of the most central processes in biology. Despite the identi...
In the bacterium Escherichia coli, the Min proteins oscillate between the cell poles to select the c...
Constructing a minimal machinery for autonomous self-division of synthetic cells is a major goal of ...
Self-organisation of Min proteins is responsible for the spatial control of cell division in Escheri...
Proper cell division requires an accurate definition of the division plane. In bacteria, this plane ...
Although the essential proteins that drive bacterial cytokinesis have been identified, the precise m...
One of the most fundamental features of biological systems is probably their ability to self-organiz...
For reconstruction of controlled cell division in a minimal cell model, or protocell, a positioning ...
<div><p>The Min protein system creates a dynamic spatial pattern in <i>Escherichia coli</i> cells wh...
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...
Intracellular protein gradients are significant determinants of spatial organization. However, littl...
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...
The Escherichia coli Min proteins select the cell middle for division by oscillating between the cel...
The MinCDE protein system from Escherichia coli has become one of the most striking paradigms of pro...
The Min biochemical network regulates bacterial cell division and is a prototypical example of self-...
Bacterial cell division is arguably one of the most central processes in biology. Despite the identi...
In the bacterium Escherichia coli, the Min proteins oscillate between the cell poles to select the c...
Constructing a minimal machinery for autonomous self-division of synthetic cells is a major goal of ...
Self-organisation of Min proteins is responsible for the spatial control of cell division in Escheri...
Proper cell division requires an accurate definition of the division plane. In bacteria, this plane ...
Although the essential proteins that drive bacterial cytokinesis have been identified, the precise m...
One of the most fundamental features of biological systems is probably their ability to self-organiz...
For reconstruction of controlled cell division in a minimal cell model, or protocell, a positioning ...
<div><p>The Min protein system creates a dynamic spatial pattern in <i>Escherichia coli</i> cells wh...
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...
Intracellular protein gradients are significant determinants of spatial organization. However, littl...
The Min protein system creates a dynamic spatial pattern in Escherichia coli cells where the protein...