The interaction of the nucleotide-binding subunit B with subunit F is essential in coupling of ion pumping and ATP synthesis in A1AO ATP synthases. Here we provide structural and thermodynamic insights on the nucleotide binding to the surface of subunits B and F of Methanosarcina mazei Gö1 A1AO ATP synthase, which initiated migration to its final binding pocket via two transitional intermediates on the surface of subunit B. NMR- and fluorescence spectroscopy as well as ITC data combined with molecular dynamics simulations of the nucleotide bound subunit B and nucleotide bound B-F complex in explicit solvent, suggests that subunit F is critical for the migration to and eventual occupancy of the final binding site by the nucleotide of subunit...
The rotational mechanism of ATP synthases requires a unique interface between the stator a subunit a...
AbstractTwo of the distinct diversities of the engines A1AO ATP synthase and F1FO ATP synthase are t...
A1AO adenosine triphosphate (ATP) synthases from archaea represent the second class of ATP synthases...
The interaction of the nucleotide-binding subunit B with subunit F is essential in coupling of ion p...
The A1AO adenosine triphosphate (ATP) synthase from archaea uses the ion gradients generated across ...
10.1007/s10863-012-9410-yJournal of Bioenergetics and Biomembranes441213-224JBBI
In archaea the A1AO ATP synthase uses a transmembrane electrochemical potential to generate ATP, whi...
ATP synthases and ATPases are membrane-bound enzymes that synthesize either ATP from ADP and phospha...
A1AO ATP synthases couple ion-transport of the AO sector and ATP synthesis/hydrolysis of the A3B3-he...
none6The rotary mechanism of ATP synthase requires a strong binding within stator subunits. In this ...
Kumar A, Manimekalai MSS, Balakrishna AM, et al. Spectroscopic and crystallographic studies of the m...
The nucleotide binding sites in A-ATP synthases are located at the interfaces of subunit A and B, wh...
Adenosine 5’-triphosphate (ATP) synthesis by oxidative phosphorylation or photophosphorylation is a ...
AbstractH+-transporting, F1Fo-type ATP synthases utilize a transmembrane H+ potential to drive ATP f...
AbstractLike the evolutionary related F1FO ATP synthases and V1VO ATPases, the A1AO ATP synthases fr...
The rotational mechanism of ATP synthases requires a unique interface between the stator a subunit a...
AbstractTwo of the distinct diversities of the engines A1AO ATP synthase and F1FO ATP synthase are t...
A1AO adenosine triphosphate (ATP) synthases from archaea represent the second class of ATP synthases...
The interaction of the nucleotide-binding subunit B with subunit F is essential in coupling of ion p...
The A1AO adenosine triphosphate (ATP) synthase from archaea uses the ion gradients generated across ...
10.1007/s10863-012-9410-yJournal of Bioenergetics and Biomembranes441213-224JBBI
In archaea the A1AO ATP synthase uses a transmembrane electrochemical potential to generate ATP, whi...
ATP synthases and ATPases are membrane-bound enzymes that synthesize either ATP from ADP and phospha...
A1AO ATP synthases couple ion-transport of the AO sector and ATP synthesis/hydrolysis of the A3B3-he...
none6The rotary mechanism of ATP synthase requires a strong binding within stator subunits. In this ...
Kumar A, Manimekalai MSS, Balakrishna AM, et al. Spectroscopic and crystallographic studies of the m...
The nucleotide binding sites in A-ATP synthases are located at the interfaces of subunit A and B, wh...
Adenosine 5’-triphosphate (ATP) synthesis by oxidative phosphorylation or photophosphorylation is a ...
AbstractH+-transporting, F1Fo-type ATP synthases utilize a transmembrane H+ potential to drive ATP f...
AbstractLike the evolutionary related F1FO ATP synthases and V1VO ATPases, the A1AO ATP synthases fr...
The rotational mechanism of ATP synthases requires a unique interface between the stator a subunit a...
AbstractTwo of the distinct diversities of the engines A1AO ATP synthase and F1FO ATP synthase are t...
A1AO adenosine triphosphate (ATP) synthases from archaea represent the second class of ATP synthases...