bioRxivMicrobiologyPreprint
MinE recruits, stabilizes, releases, and inhibits MinD interactions with membrane to drive oscillation
Anthony G. VecchiarelliiD, Min Li, Michiyo Mizuuchi, Vassili Ivanov, Kiyoshi Mizuuchi
Abstract
The MinD and MinE proteins of Escherichia coli self-organize into a standing-wave oscillator on the membrane to help align division at mid-cell. When unleashed from cellular confines, we find that MinD and MinE form a wide spectrum of patterns on artificial bilayers - static amoebas, traveling waves, traveling mushrooms, and bursts with standing-wave dynamics. We recently focused our cell-free studies on bursts because their dynamics closely resemble those found in vivo. The data unveiled a patterning mechanism largely governed by MinE regulation of MinD interaction with membrane. We proposed that the MinD to MinE ratio on the membrane acts as a toggle switch between MinE-stimulated recruitment or release of MinD from the membrane. Here we provide data that further refines and extends our model that explains the remarkable spectrum of patterns supported by these two simple proteins.
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