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UniProt Q70Q12

FXYD domain-containing ion transport regulator (Q70Q12)

FXYD domain-containing ion transport regulator (UniProt Q70Q12): 57 experimental structures on GenesisL1, 2 ligands bound, 23 pockets. Binding sites, pockets, druggability and 3D structures in GL1X.

UniProt
Q70Q12
Protein
FXYD domain-containing ion transport regulator
Experimental structures
57
Predicted models
0
Ligands
2
Pockets
23 · 0 records with a druggable one

Structures

57 records of Q70Q12 in the MolNFT archive: 57 experimental, 0 predicted.

EntryTitleMethodChainsLigandsPockets
2ZXECrystal structure of the sodium - potassium pump in the E2.2K+.Pi statex-ray diffractionG——
2ZXECrystal structure of the sodium - potassium pump in the E2.2K+.PI statex-ray diffractionG——
3A3YCrystal structure of the sodium-potassium pump with bound potassium and ouabainx-ray diffractionG——
3A3YCrystal structure of the sodium-potassium pump with bound potassium and ouabainx-ray diffractionG——
5AVQKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVQKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVRKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVRKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVSKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—3 (best 0.48)
5AVSKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVTKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—3 (best 0.49)
5AVTKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVUKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVUKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVVKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVVKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVWKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVWKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVXKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AVXKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVYKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—3 (best 0.47)
5AVYKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AVZKinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—4 (best 0.48)
5AVZKinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW0Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—3 (best 0.47)
5AW0Kinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW1Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW1Kinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW2Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW2Kinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW3Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW3Kinetics by X-ray crystallography: tl+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW4Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW4Kinetics by X-ray crystallography: rb+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW5Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW5Kinetics by X-ray crystallography: rb+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW6Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG—3 (best 0.48)
5AW6Kinetics by X-ray crystallography: rb+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW7Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after…x-ray diffractionG——
5AW7Kinetics by X-ray crystallography: rb+-substitution of bound K+ in the E2.MGF42-.2K+ crystal after…x-ray diffractionG——
5AW8Kinetics by X-ray crystallography: E2.MgF42-.2RB+ crystalx-ray diffractionG—3 (best 0.48)
5AW8Kinetics by X-ray crystallography: E2.MGF42-.2RB+ crystalx-ray diffractionG——
5AW9Kinetics by X-ray crystallography: native E2.MGF42-.2K+ crystal for rb+ bound crystalsx-ray diffractionG——
7WYUCryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATPelectron microscopyG, ECLR, PCW—
7WYUCryo-EM structure of NA+,K+-ATPase in the E2P state formed by ATPelectron microscopyG, ECLR, PCW—
7WYVCryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP in the presence of 40 mM Mg2+electron microscopyG, ECLR, PCW—
7WYVCryo-EM structure of NA+,K+-ATPase in the E2P state formed by ATP in the presence of 40 mm MG2+electron microscopyG, ECLR, PCW—
7WYWCryo-EM structure of NA+,K+-ATPase in the E2P state formed by inorganic phosphateelectron microscopyG, ECLR, PCW—
7WYXCryo-EM structure of NA+,K+-ATPase in the E2P state formed by ATP with istaroximeelectron microscopyG, ECLR, PCW—
7WYYCryo-EM structure of Na+,K+-ATPase in the E2P state formed by inorganic phosphate with istaroximeelectron microscopyG, EPCW, CLR—
7WYYCryo-EM structure of NA+,K+-ATPase in the E2P state formed by inorganic phosphate with istaroximeelectron microscopyG, ECLR, PCW—
7WYZCryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP with ouabainelectron microscopyG, EPCW, CLR—
7WYZCryo-EM structure of NA+,K+-ATPase in the E2P state formed by ATP with ouabainelectron microscopyG, EPCW, CLR—
7WZ0Cryo-EM structure of NA+,K+-ATPase in the E2P state formed by inorganic phosphate with ouabainelectron microscopyG, ECLR, PCW—
7Y45Cryo-EM structure of the NA+,K+-ATPase in the E2.2K+ stateelectron microscopyE, GCLR, PCW—
7Y46Cryo-EM structure of the Na+,K+-ATPase in the E2.2K+ state after addition of ATPelectron microscopyE, GCLR1 (best 0.48)
7Y46Cryo-EM structure of the NA+,K+-ATPase in the E2.2K+ state after addition of ATPelectron microscopyE, GCLR—

Ligands

  • CLR · Cholesterol · in 14 records
  • PCW · 1,2-dioleoyl-sn-glycero-3-phosphocholine · in 12 records

Elsewhere

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