AbstractNucleotide binding to nucleotide-depleted F1-ATPase from Escherichia coli (EcF1) during MgATP hydrolysis in the presence of excess ɛ subunit has been studied using a combination of centrifugal filtration and column-centrifugation methods. The results show that nucleotide-binding properties of catalytic sites on EcF1 are affected by the state of occupancy of noncatalytic sites. The ATP-concentration dependence of catalytic-site occupancy during MgATP hydrolysis demonstrates that a bi-site mechanism is responsible for the positive catalytic cooperativity observed during multi-site catalysis by EcF1. The results suggest that a bi-site mechanism is a general feature of F1 catalysis
Escherichia coli transcription termination factor rho is a hexamer with three catalytic subunits tha...
AbstractMost of the cellular ATP in living organisms is synthesized by the enzyme F1Fo-ATP synthase....
AbstractExcept for the case of gradual activation of EF1(F1-ATPase from Escherichia coli) caused by ...
AbstractNucleotide binding to nucleotide-depleted F1-ATPase from Escherichia coli (EcF1) during MgAT...
AbstractWe prepared two types of E. coli F1 by slightly different gel filtration procedures of the p...
AbstractF1-ATPase is a rotary molecular motor in which the central γ subunit rotates inside a cylind...
AbstractUsing site-directed tryptophan fluorescence we studied nucleotide occupancy of the catalytic...
AbstractIn active MF1, one of the two non-exchangeable tightly bound adenine nucleotides is an ATP, ...
F1-ATPase catalyses ATP hydrolysis and converts the cellular chemical energy into mechanical rotatio...
AbstractDuring ATP synthesis, ATP synthase has to bind MgADP in the presence of an excess of MgATP. ...
During ATP synthesis, ATP synthase has to bind MgADP in the presence of an excess of MgATP. Thus, fo...
AbstractA mutant of Escherichia coli F1F0-ATPase, αS411C/βY331W/βE381C/γC87S, has been generated. Cu...
AbstractThe F1-Fo ATP synthase bears 6 nucleotide binding sites, only 3 of which turn over during ca...
AbstractThe effect of inorganic phosphate (Pi) on uni-site ATP binding and hydrolysis by the nucleot...
AbstractF1-ATPase, the catalytic sector of Fo-F1 ATPases–ATPsynthases, displays an apparent negative...
Escherichia coli transcription termination factor rho is a hexamer with three catalytic subunits tha...
AbstractMost of the cellular ATP in living organisms is synthesized by the enzyme F1Fo-ATP synthase....
AbstractExcept for the case of gradual activation of EF1(F1-ATPase from Escherichia coli) caused by ...
AbstractNucleotide binding to nucleotide-depleted F1-ATPase from Escherichia coli (EcF1) during MgAT...
AbstractWe prepared two types of E. coli F1 by slightly different gel filtration procedures of the p...
AbstractF1-ATPase is a rotary molecular motor in which the central γ subunit rotates inside a cylind...
AbstractUsing site-directed tryptophan fluorescence we studied nucleotide occupancy of the catalytic...
AbstractIn active MF1, one of the two non-exchangeable tightly bound adenine nucleotides is an ATP, ...
F1-ATPase catalyses ATP hydrolysis and converts the cellular chemical energy into mechanical rotatio...
AbstractDuring ATP synthesis, ATP synthase has to bind MgADP in the presence of an excess of MgATP. ...
During ATP synthesis, ATP synthase has to bind MgADP in the presence of an excess of MgATP. Thus, fo...
AbstractA mutant of Escherichia coli F1F0-ATPase, αS411C/βY331W/βE381C/γC87S, has been generated. Cu...
AbstractThe F1-Fo ATP synthase bears 6 nucleotide binding sites, only 3 of which turn over during ca...
AbstractThe effect of inorganic phosphate (Pi) on uni-site ATP binding and hydrolysis by the nucleot...
AbstractF1-ATPase, the catalytic sector of Fo-F1 ATPases–ATPsynthases, displays an apparent negative...
Escherichia coli transcription termination factor rho is a hexamer with three catalytic subunits tha...
AbstractMost of the cellular ATP in living organisms is synthesized by the enzyme F1Fo-ATP synthase....
AbstractExcept for the case of gradual activation of EF1(F1-ATPase from Escherichia coli) caused by ...