" /> P-type ATPases - CISMeF





Preferred Label : P-type ATPases;

MeSH definition : A highly conserved family of ATPases that facilitate the transport of lipids and cations across the plasma membrane. Structurally, they are elongated ALPHA-HELICES constituting five functionally distinct domains: three cytoplasmic domains A, N, and P which contain the catalytic sites, and two transmembrane domains. The N domain phosphorylates the P-domain at an invariant ASPARTATE residue, which, in turn, is dephosphorylated by the A domain. The phosphorylation and dephosphorylation cycles drive conformational changes in the protein between two states (E1 and E2), which allow the substrate to access the other side of the membrane.;

MeSH synonym : ATPases, P-type; P type ATPases; Phosphorylation-type ATPases; ATPases, Phosphorylation-type; Phosphorylation type ATPases; P-type Adenosine Triphosphatases; Adenosine Triphosphatases, P-type; P type Adenosine Triphosphatases; Triphosphatases, P-type Adenosine; Phosphorylation-type Adenosine Triphosphatases; Adenosine Triphosphatases, Phosphorylation-type; Phosphorylation type Adenosine Triphosphatases; Triphosphatases, Phosphorylation-type Adenosine; E1-E2 ATPases; ATPases, E1-E2; E1 E2 ATPases; P-type Adenosine Triphosphatase; Adenosine Triphosphatase, P-type; P type Adenosine Triphosphatase; Triphosphatase, P-type Adenosine; P-type ATPase; ATPase, P-type; P type ATPase; Atpase, P Type; Type Atpase, P; E1-E2 ATPase; ATPase, E1-E2; E1 E2 ATPase;

Registry Number MeSH : EC 3.6.3.-;

Details


You can consult :

A highly conserved family of ATPases that facilitate the transport of lipids and cations across the plasma membrane. Structurally, they are elongated ALPHA-HELICES constituting five functionally distinct domains: three cytoplasmic domains A, N, and P which contain the catalytic sites, and two transmembrane domains. The N domain phosphorylates the P-domain at an invariant ASPARTATE residue, which, in turn, is dephosphorylated by the A domain. The phosphorylation and dephosphorylation cycles drive conformational changes in the protein between two states (E1 and E2), which allow the substrate to access the other side of the membrane.

Nous contacter.
02/05/2025


[Home] [Top]

© Rouen University Hospital. Any partial or total use of this material must mention the source.