Inhibitors of bacterial tubulin target bacterial membranes in vivo

FtsZ is a homolog of eukaryotic tubulin that is widely conserved among bacteria and coordinates the assembly of the cell division machinery. FtsZ plays a central role in cell replication and is a target of interest for antibiotic development. Several FtsZ inhibitors have been reported. We characteri...

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Veröffentlicht in:MedChemComm 2013-01, Vol.4 (1), p.112-119
Hauptverfasser: Foss, Marie H, Eun, Ye-Jin, Grove, Charles I, Pauw, Daniel A, Sorto, Nohemy A, Rensvold, Jarred W, Pagliarini, David J, Shaw, Jared T, Weibel, Douglas B
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container_issue 1
container_start_page 112
container_title MedChemComm
container_volume 4
creator Foss, Marie H
Eun, Ye-Jin
Grove, Charles I
Pauw, Daniel A
Sorto, Nohemy A
Rensvold, Jarred W
Pagliarini, David J
Shaw, Jared T
Weibel, Douglas B
description FtsZ is a homolog of eukaryotic tubulin that is widely conserved among bacteria and coordinates the assembly of the cell division machinery. FtsZ plays a central role in cell replication and is a target of interest for antibiotic development. Several FtsZ inhibitors have been reported. We characterized the mechanism of these compounds in bacteria and found that many of them disrupt the localization of membrane-associated proteins, including FtsZ, by reducing the transmembrane potential or perturbing membrane permeability. We tested whether the reported phenotypes of a broad collection of FtsZ inhibitors disrupt the transmembrane potential in strain 168. Using a combination of flow cytometry and microscopy, we found that zantrin Z1, cinnamaldehyde, totarol, sanguinarine, and viriditoxin decreased the transmembrane potential or perturbed membrane permeability, and influenced the localization of the membrane-associated, division protein MinD. These studies demonstrate that small molecules that disrupt membrane function in bacterial cells produce phenotypes that are similar to the inhibition of proteins associated with membranes , including bacterial cytoskeleton homologs, such as FtsZ. The results provide a new dimension for consideration in the design and testing of inhibitors of bacterial targets that are membrane-associated and provide additional insight into the structural characteristics of antibiotics that disrupt the membrane.
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source Royal Society Of Chemistry Journals 2008-; Alma/SFX Local Collection
subjects Antibiotics
Bacillus
Cell division
cinnamaldehyde
Cytoskeleton
Flow cytometry
Membrane permeability
Membrane potential
Microscopy
Replication
sanguinarine
Tubulin
title Inhibitors of bacterial tubulin target bacterial membranes in vivo
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