Nonequivalence of membrane voltage and ion-gradient as driving forces for the bacterial flagellar motor at low load.
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Inferring diffusion in single live cells at the single-molecule levelFast, multiphase volume adaptation to hyperosmotic shock by Escherichia coliIon channels enable electrical communication in bacterial communities.Isolation of Salmonella mutants resistant to the inhibitory effect of Salicylidene acylhydrazides on flagella-mediated motilityA simple backscattering microscope for fast tracking of biological molecules.Variable stoichiometry of the TatA component of the twin-arginine protein transport system observed by in vivo single-molecule imaging.Thermal and solvent-isotope effects on the flagellar rotary motor near zero load.Electrical spiking in Escherichia coli probed with a fluorescent voltage-indicating protein.Speed switching of gonococcal surface motility correlates with proton motive force.An energy transduction mechanism used in bacterial flagellar type III protein export.Mechanism and kinetics of a sodium-driven bacterial flagellar motor.Load-dependent assembly of the bacterial flagellar motorBacterial flagellar motor.Model studies of the dynamics of bacterial flagellar motors.Temperature dependences of torque generation and membrane voltage in the bacterial flagellar motor.Length-dependent flagellar growth of Vibrio alginolyticus revealed by real time fluorescent imagingUsing Biophysics to Monitor the Essential Protonmotive Force in Bacteria.The C-terminal periplasmic domain of MotB is responsible for load-dependent control of the number of stators of the bacterial flagellar motorDimer ribbons of ATP synthase shape the inner mitochondrial membrane.Shining the spotlight on functional molecular complexes: The new science of single-molecule cell biologySpecies-Independent Attraction to Biofilms through Electrical Signaling.Dynamic single-cell NAD(P)H measurement reveals oscillatory metabolism throughout the E. coli cell division cycle.Charged residues in the cytoplasmic loop of MotA are required for stator assembly into the bacterial flagellar motor.Speed of the bacterial flagellar motor near zero load depends on the number of stator units.Millisecond single-molecule localization microscopy combined with convolution analysis and automated image segmentation to determine protein concentrations in complexly structured, functional cells, one cell at a time.Controlling the Resting Membrane Potential of Cells with Conducting Polymer Microwires.Quantification of flagellar motor stator dynamics through in vivo proton-motive force control.Measurements of Ion-Motive Force Across the Cell Membrane.Modeling torque versus speed, shot noise, and rotational diffusion of the bacterial flagellar motor.The biophysicist’s guide to the bacterial flagellar motorTranscription factors in eukaryotic cells can functionally regulate gene expression by acting in oligomeric assemblies formed from an intrinsically disordered protein phase transition enabled by molecular crowdingCryo-EM structure of a fungal mitochondrial calcium uniporter
P2860
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P2860
Nonequivalence of membrane voltage and ion-gradient as driving forces for the bacterial flagellar motor at low load.
description
2007 nî lūn-bûn
@nan
2007年の論文
@ja
2007年論文
@yue
2007年論文
@zh-hant
2007年論文
@zh-hk
2007年論文
@zh-mo
2007年論文
@zh-tw
2007年论文
@wuu
2007年论文
@zh
2007年论文
@zh-cn
name
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@en
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@nl
type
label
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@en
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@nl
prefLabel
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@en
Nonequivalence of membrane vol ...... l flagellar motor at low load.
@nl
P2860
P1433
P1476
Nonequivalence of membrane vol ...... al flagellar motor at low load
@en
P2093
Chien-Jung Lo
Richard M Berry
P2860
P304
P356
10.1529/BIOPHYSJ.106.095265
P407
P577
2007-04-06T00:00:00Z