AbstractIn recent years, structural information on the F1 sector of the ATP synthase has provided an insight into the molecular mechanism of ATP catalysis. The structure strongly supports the proposal that the ATP synthase works as a rotary molecular motor. Insights into the membrane domain have just started to emerge but more detailed structural information is needed if the molecular mechanism of proton translocation coupled to ATP synthesis is to be understood. This review will focus mainly on the ion translocating rotor in the membrane domain of the F-type ATPase, and the related vacuolar and archaeal relatives
AbstractF1Fo-ATP synthase is a ubiquitous membrane protein complex that efficiently converts a cell'...
SummaryVacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are ess...
Vacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are essential ...
AbstractIn recent years, structural information on the F1 sector of the ATP synthase has provided an...
AbstractThe F0F1 ATP synthase functions as a rotary motor where subunit rotation driven by a current...
AbstractH+-transporting, F1Fo-type ATP synthases utilize a transmembrane H+ potential to drive ATP f...
AbstractF1F0 ATP synthases are known to synthesize ATP by rotary catalysis in the F1 sector of the e...
AbstractF1Fo-ATP synthase is a ubiquitous membrane protein complex that efficiently converts a cell'...
AbstractTopical questions in ATP synthase research are: (1) how do protons cause subunit rotation an...
Adenosine triphosphate (ATP) is the molecular currency of intracellular energy transfer in living or...
ATP synthases are rotary engines which use the energy stored in a transmembrane electrochemical grad...
Adenosine triphosphate (ATP) is the molecular currency of intracellular energy transfer in living or...
The rotary ATPase family is comprised of the ATP synthase (F-ATPase), vacuolar ATPase (V-ATPase) and...
AbstractF1F0 ATP synthases are known to synthesize ATP by rotary catalysis in the F1 sector of the e...
AbstractCoupling with electrochemical proton gradient, ATP synthase (F0F1) synthesizes ATP from ADP ...
AbstractF1Fo-ATP synthase is a ubiquitous membrane protein complex that efficiently converts a cell'...
SummaryVacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are ess...
Vacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are essential ...
AbstractIn recent years, structural information on the F1 sector of the ATP synthase has provided an...
AbstractThe F0F1 ATP synthase functions as a rotary motor where subunit rotation driven by a current...
AbstractH+-transporting, F1Fo-type ATP synthases utilize a transmembrane H+ potential to drive ATP f...
AbstractF1F0 ATP synthases are known to synthesize ATP by rotary catalysis in the F1 sector of the e...
AbstractF1Fo-ATP synthase is a ubiquitous membrane protein complex that efficiently converts a cell'...
AbstractTopical questions in ATP synthase research are: (1) how do protons cause subunit rotation an...
Adenosine triphosphate (ATP) is the molecular currency of intracellular energy transfer in living or...
ATP synthases are rotary engines which use the energy stored in a transmembrane electrochemical grad...
Adenosine triphosphate (ATP) is the molecular currency of intracellular energy transfer in living or...
The rotary ATPase family is comprised of the ATP synthase (F-ATPase), vacuolar ATPase (V-ATPase) and...
AbstractF1F0 ATP synthases are known to synthesize ATP by rotary catalysis in the F1 sector of the e...
AbstractCoupling with electrochemical proton gradient, ATP synthase (F0F1) synthesizes ATP from ADP ...
AbstractF1Fo-ATP synthase is a ubiquitous membrane protein complex that efficiently converts a cell'...
SummaryVacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are ess...
Vacuolar H+-ATPases are multisubunit complexes that operate with rotary mechanics and are essential ...