Structure of the hexameric fungal plasma membrane proton pump in its autoinhibited state

The fungal plasma membrane H -ATPase Pma1 is a vital enzyme, generating a proton-motive force that drives the import of essential nutrients. Autoinhibited Pma1 hexamers in the plasma membrane of starving fungi are activated by glucose signaling and subsequent phosphorylation of the autoinhibitory do...

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Veröffentlicht in:Science advances 2021-11, Vol.7 (46), p.eabj5255-eabj5255
Hauptverfasser: Heit, Sabine, Geurts, Maxwell M G, Murphy, Bonnie J, Corey, Robin A, Mills, Deryck J, Kühlbrandt, Werner, Bublitz, Maike
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container_issue 46
container_start_page eabj5255
container_title Science advances
container_volume 7
creator Heit, Sabine
Geurts, Maxwell M G
Murphy, Bonnie J
Corey, Robin A
Mills, Deryck J
Kühlbrandt, Werner
Bublitz, Maike
description The fungal plasma membrane H -ATPase Pma1 is a vital enzyme, generating a proton-motive force that drives the import of essential nutrients. Autoinhibited Pma1 hexamers in the plasma membrane of starving fungi are activated by glucose signaling and subsequent phosphorylation of the autoinhibitory domain. As related P-type adenosine triphosphatases (ATPases) are not known to oligomerize, the physiological relevance of Pma1 hexamers remained unknown. We have determined the structure of hexameric Pma1 from by electron cryo-microscopy at 3.3-Å resolution, elucidating the molecular basis for hexamer formation and autoinhibition and providing a basis for structure-based drug development. Coarse-grained molecular dynamics simulations in a lipid bilayer suggest lipid-mediated contacts between monomers and a substantial protein-induced membrane deformation that could act as a proton-attracting funnel.
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subjects Biochemistry
Biomedicine and Life Sciences
SciAdv r-articles
Structural Biology
title Structure of the hexameric fungal plasma membrane proton pump in its autoinhibited state
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