AbstractFtsZ, the prokaryotic ortholog of tubulin, assembles into polymers in the bacterial division ring. The interfaces between monomers contain a GTP molecule, but the relationship between polymerization and GTPase activity is not unequivocally proven. A set of short FtsZ polymers were modelled and the formation of active GTPase structures was monitored using molecular dynamics. Only the interfaces nearest the polymer ends exhibited an adequate geometry for GTP hydrolysis. Simulated conversion of interfaces from close-to-end to internal position and vice versa resulted in their spontaneous rearrangement between active and inactive conformations. This predicted behavior of FtsZ polymer ends was supported by in vitro experiments
AbstractWe have investigated the activation of FtsZ by monovalent cations. FtsZ polymerization was d...
FtsZ, a tubulin homologue, forms a cytokinetic ring at the site of cell division in prokaryotes. The...
International audienceWe present here a structural analysis of ten extensive all-atom molecular dyna...
FtsZ, the prokaryotic ortholog of tubulin, assembles into polymers in the bacterial division ring. T...
AbstractFtsZ, the prokaryotic ortholog of tubulin, assembles into polymers in the bacterial division...
AbstractFtsZ is a major protein in bacterial cytokinesis that polymerizes into single filaments. A d...
Earlier molecular dynamics studies of the FtsZ protein revealed that the protein has high intrinsic ...
AbstractStable, more than 98% nucleotide-free apo-FtsZ was prepared from purified Methanococcus jann...
AbstractWe have analyzed the substrate kinetics of the GTPase activity of FtsZ and the effects of tw...
AbstractBacterial cytoskeletal protein FtsZ assembles in a head-to-tail manner, forming dynamic fila...
AbstractBacteria and archaea usually divide symmetrically by formation of a septum in the middle of ...
The essential prokaryotic cell division protein FtsZ is a tubulin homologue that forms a ring at the...
© 2015 by The American Society for Biochemistry and Molecular Biology, Inc.. The cell division prote...
A simulation model of prokaryotic Z-ring assembly, based on the observed behavior of FtsZ in vitro a...
FtsZ, a tubulin homologue, forms a cytokinetic ring at the site of cell division in prokaryotes. The...
AbstractWe have investigated the activation of FtsZ by monovalent cations. FtsZ polymerization was d...
FtsZ, a tubulin homologue, forms a cytokinetic ring at the site of cell division in prokaryotes. The...
International audienceWe present here a structural analysis of ten extensive all-atom molecular dyna...
FtsZ, the prokaryotic ortholog of tubulin, assembles into polymers in the bacterial division ring. T...
AbstractFtsZ, the prokaryotic ortholog of tubulin, assembles into polymers in the bacterial division...
AbstractFtsZ is a major protein in bacterial cytokinesis that polymerizes into single filaments. A d...
Earlier molecular dynamics studies of the FtsZ protein revealed that the protein has high intrinsic ...
AbstractStable, more than 98% nucleotide-free apo-FtsZ was prepared from purified Methanococcus jann...
AbstractWe have analyzed the substrate kinetics of the GTPase activity of FtsZ and the effects of tw...
AbstractBacterial cytoskeletal protein FtsZ assembles in a head-to-tail manner, forming dynamic fila...
AbstractBacteria and archaea usually divide symmetrically by formation of a septum in the middle of ...
The essential prokaryotic cell division protein FtsZ is a tubulin homologue that forms a ring at the...
© 2015 by The American Society for Biochemistry and Molecular Biology, Inc.. The cell division prote...
A simulation model of prokaryotic Z-ring assembly, based on the observed behavior of FtsZ in vitro a...
FtsZ, a tubulin homologue, forms a cytokinetic ring at the site of cell division in prokaryotes. The...
AbstractWe have investigated the activation of FtsZ by monovalent cations. FtsZ polymerization was d...
FtsZ, a tubulin homologue, forms a cytokinetic ring at the site of cell division in prokaryotes. The...
International audienceWe present here a structural analysis of ten extensive all-atom molecular dyna...