UniProt P21306

ATP synthase subunit epsilon (P21306)

ATP synthase subunit epsilon (UniProt P21306): 63 experimental structures and 1 predicted model on GenesisL1, 16 pockets. Binding sites, druggability and experiment against prediction (TM-score) in GL1X.

UniProt: P21306
Protein: ATP synthase subunit epsilon
Experimental structures: 63
Predicted models: 1
Pockets: 16 · 12 records with a druggable one

Structures

64 records of P21306 in the MolNFT archive: 63 experimental, 1 predicted.

Entry	Title	Method	Chains	Ligands	Pockets
2HLD	Crystal structure of yeast mitochondrial F1-ATPase	x-ray diffraction	I, R, 1	—	—
2HLD	Crystal structure of yeast mitochondrial F1-ATPase	x-ray diffraction	I, R, 1	—	—
2WPD	The Mg.ADP inhibited state of the yeast F1c10 ATP synthase	x-ray diffraction	I	—	—
2WPD	The MG.ADP inhibited state of the yeast F1C10 ATP synthase	x-ray diffraction	I	—	—
3FKS	Yeast F1 ATPase in the absence of bound nucleotides	x-ray diffraction	I, R, 1	—	—
3FKS	Yeast F1 ATPase in the absence of bound nucleotides	x-ray diffraction	I, R, 1	—	—
3OE7	Structure of four mutant forms of yeast f1 ATPase: gamma-I270T	x-ray diffraction	I, R, 1	—	—
3OE7	Structure of four mutant forms of yeast F1 ATPase: gamma-I270T	x-ray diffraction	I, R, 1	—	—
3OEE	Structure of four mutant forms of yeast F1 ATPase: alpha-F405S	x-ray diffraction	I, R, 1	—	—
3OEE	Structure of four mutant forms of yeast F1 ATPase: alpha-F405S	x-ray diffraction	I, R, 1	—	—
3OEH	Structure of four mutant forms of yeast F1 ATPase: beta-V279F	x-ray diffraction	I, R, 1	—	—
3OEH	Structure of four mutant forms of yeast F1 ATPase: beta-V279F	x-ray diffraction	I, R, 1	—	—
3OFN	Structure of four mutant forms of yeast F1 ATPase: alpha-N67I	x-ray diffraction	I, R	—	—
3OFN	Structure of four mutant forms of yeast F1 ATPase: alpha-N67I	x-ray diffraction	I, R	—	—
3ZIA	The structure of F1-ATPase from Saccharomyces cerevisiae inhibited by its regulatory protein IF1	x-ray diffraction	I, S	—	—
3ZIA	The structure of F1-ATPase from saccharomyces cerevisiae inhibited by its regulatory protein IF1	x-ray diffraction	I, S	—	—
4B2Q	Model of the yeast F1Fo-ATP synthase dimer based on subtomogram average	electron microscopy	I, i	—	—
4B2Q	Model of the yeast F1FO-ATP synthase dimer based on subtomogram average	electron microscopy	I, i	—	—
6CP3	Monomer yeast ATP synthase (F1Fo) reconstituted in nanodisc with inhibitor of oligomycin bound.	electron microscopy	I	—	1 (best 0.78)
6CP3	Monomer yeast ATP synthase (F1FO) reconstituted in nanodisc with inhibitor of oligomycin bound.	electron microscopy	I	—	—
6CP6	Monomer yeast ATP synthase (F1FO) reconstituted in nanodisc.	electron microscopy	I	—	—
7MD3	The F1 region of apoptolidin-bound Saccharomyces cerevisiae ATP synthase	electron microscopy	H	—	—
7TJZ	Yeast ATP synthase state 1CATALYTIC(B) without exogenous ATP backbone model	electron microscopy	I	—	—
7TK0	Yeast ATP synthase State 1catalytic(c) without exogenous ATP backbone model	electron microscopy	I	—	2 (best 0.72)
7TK1	Yeast ATP synthase State 1catalytic(d) without exogenous ATP backbone model	electron microscopy	I	—	2 (best 0.72)
7TK1	Yeast ATP synthase state 1CATALYTIC(D) without exogenous ATP backbone model	electron microscopy	I	—	—
7TK2	Yeast ATP synthase state 1BINDING(A) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TK4	Yeast ATP synthase State 1binding(c) with 10 mM ATP backbone model	electron microscopy	I	—	—
7TK4	Yeast ATP synthase state 1BINDING(C) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TK5	Yeast ATP synthase state 1BINDING(D) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TK6	Yeast ATP synthase State 1catalytic(a) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.62)
7TK7	Yeast ATP synthase state 1CATALYTIC(B) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TK8	Yeast ATP synthase State 1catalytic(c) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.72)
7TK8	Yeast ATP synthase state 1CATALYTIC(C) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TK9	Yeast ATP synthase State 1catalytic(d) with 10 mM ATP backbone model	electron microscopy	I	—	—
7TK9	Yeast ATP synthase state 1CATALYTIC(D) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKA	Yeast ATP synthase State 1catalytic(e) with 10 mM ATP backbone model	electron microscopy	I	—	2 (best 0.70)
7TKA	Yeast ATP synthase state 1CATALYTIC(E) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKB	Yeast ATP synthase State 1catalytic(f) with 10 mM ATP backbone model	electron microscopy	I	—	—
7TKB	Yeast ATP synthase state 1CATALYTIC(F) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKC	Yeast ATP synthase State 1catalytic(g) with 10 mM ATP backbone model	electron microscopy	I	—	—
7TKC	Yeast ATP synthase state 1CATALYTIC(G) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKD	Yeast ATP synthase state 1CATALYTIC(H) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKE	Yeast ATP synthase State 2binding(a) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.71)
7TKE	Yeast ATP synthase state 2BINDING(A) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKF	Yeast ATP synthase State 2binding(b) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.68)
7TKF	Yeast ATP synthase state 2BINDING(B) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKG	Yeast ATP synthase state 2CATALYTIC(A) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKH	Yeast ATP synthase state 2CATALYTIC(B) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKI	Yeast ATP synthase state 2CATALYTIC(C) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKJ	Yeast ATP synthase State 2catalytic(d) with 10 mM ATP backbone model	electron microscopy	I	—	—
7TKJ	Yeast ATP synthase state 2CATALYTIC(D) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKK	Yeast ATP synthase state 2CATALYTIC(E) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKL	Yeast ATP synthase state 3BINDING(A) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKN	Yeast ATP synthase state 3BINDING(C) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKO	Yeast ATP synthase state 3CATALYTIC(A) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKP	Yeast ATP synthase state 3CATALYTIC(B) with 10 mm ATP backbone model	electron microscopy	I	—	—
7TKQ	Yeast ATP synthase State 3catalytic(c) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.60)
7TKR	Yeast ATP synthase State 3catalytic(d) with 10 mM ATP backbone model	electron microscopy	I	—	1 (best 0.72)
7TKR	Yeast ATP synthase state 3CATALYTIC(D) with 10 mm ATP backbone model	electron microscopy	I	—	—

4 records more on the page itself.

Experiment against prediction

2HLD chain I against the predicted model P21306: TM-score 0.79, RMSD 1.21 Å
2HLD chain I against the predicted model P21306: TM-score 0.79, RMSD 1.21 Å
3OE7 chain I against the predicted model P21306: TM-score 0.79, RMSD 1.29 Å
3OE7 chain I against the predicted model P21306: TM-score 0.79, RMSD 1.29 Å
3OEE chain I against the predicted model P21306: TM-score 0.77, RMSD 1.45 Å
3OEE chain I against the predicted model P21306: TM-score 0.77, RMSD 1.45 Å
3OFN chain R against the predicted model P21306: TM-score 0.76, RMSD 1.65 Å
3OFN chain R against the predicted model P21306: TM-score 0.76, RMSD 1.65 Å
3ZIA chain S against the predicted model P21306: TM-score 0.76, RMSD 1.67 Å
3ZIA chain S against the predicted model P21306: TM-score 0.76, RMSD 1.67 Å

Elsewhere

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