ATPase
ATPase is an enzyme which catalyzes the breakdown of ATP into ADP and a phosphate ion. This dephosphorylation releases energy which the enzyme uses to drive other reactions. ATPase types include:
ATPase domains include metal-binding domain (MBD) and nucleotide-binding domain (NBD). For more details see:
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3D Structures of ATPase3D Structures of ATPase
Updated on 25-March-2018
F1F0 ATPase α, β, γ, δ, ε subunits
4asu, 2jdi, 2jj1, 2jj2 - bF1-ATPS
2v7q, 1e79, 2ck3 - bF1-ATPS+inhibitor
- 4yxw - bF1-ATPS+ ANP
- 4yxw - bF1-ATPS+ ANP
2xnd, 2xok - bF1-ATPS+ATPS lipid-binding protein
2wpd, 2wss - yF1-ATPS+subunit 9+Mg+ADP+ATP - yeast
3oe7, 3oee, 3oeh, 3ofn - yF1-ATPS (mutant)
3fks, 3zry, 2hld - yF1-ATPS
3j0j – TtATPS α,β,γ,δ,ε,ζ - Cryo EM
F1F0 ATPase α, β, γ, ε subunits
3oaa – EcF1-ATPS (mutant)
1e79 - bF1-ATPS
F1F0 ATPase α,β,γ,δ,ε,9,B,D,6,O subunits
4b2q – yATPase – Cryo EM
- F1F0 ATPase α,β,γ,δ,ε,A,C subunits
- 5dn6 – PdATPase + zeta inhibitor protein
- 5dn6 – PdATPase + zeta inhibitor protein
- F1F0 ATPase α,β,γ,δ,ε,A,B,C subunits
- F1F0 ATPase α,β,γ,δ,ε,A,B,C,D,F,H,AAP1 subunits
- F1F0 ATPase α,β,γ,δ,ε,B1,C1,D,O subunits
- F1F0 ATPase A,B,C,D,E,F,G,J,K subunits
- 6b2z – yATPase – Cryo EM
- 6b2z – yATPase – Cryo EM
- F1F0 ATPase α,β,γ,δ,ε,A,D,E,F,G,J,K,H,4,5,8,9 subunits
- 6b8h – yATPase
- 6b8h – yATPase
1bmf - bF1-ATPS
3dze – bF1-ATPS subunit S
1cow - bF1-ATPS+aurovertin B
4f4s – yATPase subunit 9 + oligomycin
V-ATPaseV-ATPase
V-ATPase subunit A
3i4l - PhATPS subunit A+AMPPNP
3mfy, 3m4y, 3nd8, 3nd9, 3p20, 3qg1, 3qia, 3qjy, 3sdz, 3se0, 5x09 - PhATPS subunit A
(mutant)
3i72, 3i73, 3ikj - TtATPS subunit A (mutant)
V-ATPase subunit B
2c61 - MmATPS subunit B – Methanosarcina mazei
2rkw, 3b2q, 3ssa, 3tgw, 3tiv - MmATPS subunit B (mutant)
3dsr - MmATPS subunit B+ADP
3eiu - MmATPS subunit B+ATP
V-ATPase subunit C
1u7l, 3u2f, 3u2y, 3u32, 3ud0 - yATPS subunit C
3v3c - ATPS subunit C - pea
1ijp, 1l6t – EcF1-ATPS subunit C (mutant) – Escherichia coli - NMR
1r5z, 1v9m - TtATPS subunit C – Thermus thermophilus
3lg8 - MtATPS subunit C C-terminal
2w5j - sATPS subunit C - spinach
2wie, 2xqs, 2xqt, 2xqu - ATPS subunit C – Arthrospira platensis
3zk1, 3zk2 - ATPS subunit C – Fusobacterium nucleatum
V-ATPase subunit D+F
- 4rnd – yATPase subunit D+F
- 4rnd – yATPase subunit D+F
V-ATPase subunit E
2kz9 – yATPase subunit E
2dm9, 2dma, 4dt0 - PhATPS subunit E – Pyrococcus horikoshii
2kk7 - MjATPS subunit E – Methanocaldococcus jannaschii
3v6i – TtATPS subunit E + VAPC
V-ATPase subunit F
2qai - ATPS subunit F – Pyrococcus furiosus
2i4r - ATPS subunit F – Archaeoglobus fulgidus
2ov6 - MmATPS subunit F - NMR
2d00 - TtATPS subunit F
4ix9 – yATP subunit F (mutant)
V-ATPase subunit G
2k88 - yATPS subunit G residues 2-58 - NMR
- 2kwy - yATPS subunit G residues 61-101 - NMR
- 2kwy - yATPS subunit G residues 61-101 - NMR
V-ATPase subunit H
1ho8 – yATPS subunit H
V-ATPase subunit K
2bl2, 2cyd - EhATPS subunit K – Enterococcus hirae
V-ATPase subunit I
3rrk – ATPS subunit I N terminal – Meiothermus ruber
- V-ATPase multi subunits
4dl0, 4efa - yATPase subunits C,G,E
3w3a - yATPS subunit A,B,D,F
3a5c, 3a5d - TtATPS subunit A,B,D,F
3gqb - TtATPS subunit A (mutant),B (mutant)
3k5b - TtATPS subunit E (mutant)+C
P-ATPaseP-ATPase
Cu+2 transporting ATPase
2kmv, 2kmx, 2arf, 2koy – hATPase NBD – human – NMR
2kij - hATPase actuator domain – NMR
1yjr, 1yjt, 1yju, 1yjv - hATPase (mutant) 6th soluble domain – NMR
1y3j, 1y3k - hATPase 5th soluble domain – NMR
- 2ew9 - hATPase 5th+6th soluble domains – NMR
- 2ew9 - hATPase 5th+6th soluble domains – NMR
1s6o, 1s6u, 2lqb - hATPase 2nd soluble domain – NMR
1q8l - hATPase 2nd MBD – NMR
1aw0, 2aw0 - hATPase 4th MBD – NMR
1kvi, 1kvj - hATPase 1st MBD – NMR
- 5t7l - hATPase 1st MBD + Cu transport protein
- 5t7l - hATPase 1st MBD + Cu transport protein
3dxs - AtATPase RAN1 MBD (mutant) – Arabidopsis thaliana
3voy - AfATPase – Archaeoglobus fulgidus – CryoEM
3skx, 3sky - AfATPase NBD
2k1r - hATPase MBD+ ATOX1 – NMR
2rop, 2g9o, 2ga7 - hATPase MBD – NMR
2rml - BsATPase N-terminal – Bacillus subtilis – NMR
2gcf - sATPase N-terminal - Synechocystis – NMR
- 4a4j - sATPase N-terminal
- 4a4j - sATPase N-terminal
4a48 - sATPase
2iye - SsATPase catalytic domain – Sulfolobus solfataricus
2yj3 - SsATPase catalytic domain (mutant)
2yj4, 2yj5, 2yj6 - SsATPase catalytic domain (mutant) + nucleotide
1fvq, 1fvs - hATPase – NMR
3cjk – hATPase + Cu transporting protein ATX1
3rfu, 4bbj, 4bev, 4byg – LpATPase – Legionella pneumophila
4f2f - ATPase metal-binding domain – Streptococcus pneumonia
3j08, 3j09 - AfATPase
3a1c – AfATPase + AMPPCP
3a1d - AfATPase + ADP-Mg
3a1e - AfATPase (mutant) + AMPPCP
Na/K transporting ATPase
3a3y - SaATPase+K+ouabain – Squalus acanthias
3kdp, 3b8e – pATPase – pig
3n23 – pATPase + ouabain
3b8e - pATPase a+BeF3
2hc8 –AfATPase CopA A domain
2b8e - AfATPase CopA NBD
2xze - SaATPase
1mo8, 1mo7 - rATPase α-1 – rat
1q3i - pATPase NBD
4ret, 4res, 4hyt, 4hqj - pATPase subunits α,β,γ
2zxe - ATPase subunits α,β + phospholemman-like protein – spiny dogfish
Ca+2 transporting ATPase
3fgo - rATPase+CPA+AMPPCP – rabbit
3b9r, 1xp5 - rATPase+AlF4
1wpg - rATPase+MgF4
3w5b - rATPase+Mg
- 4bew - rATPase+ phosphate analog
- 4bew - rATPase+ phosphate analog
2zbf - rATPase+BeF3+TG
2zbg - rATPase+AlF4+TG
2zbd, 3ar8 - rATPase+AlF4+nucleotide+Ca
3ar9 - rATPase+BeF3+nucleotide
2dqs, 3ar2, 1vfp, 4xou - rATPase+AMPPCP
- 5a3r - rATPase + BeF3 + AMPPCP
- 5a3r - rATPase + BeF3 + AMPPCP
2c88, 2c8k, 3ar4, 3ar3, 3ar5, 3ar7 - rATPase+nucleotide+TG
2ear, 2c8l - rATPase+TG
2agv - rATPase+TG+BHQ
4ycl - rATPase+CPA
2eat - rATPase+CPA+GT
3ar6 - rATPase+TNP-ADP+GT
2eau - rATPase+CPA+curcumin
3ba6 - rATPase phosphoenzyme intermediate
3fpb - rATPase+ATP+cyclopiazonic acid
3fps, 2oa0 - rATPase+ADP+cyclopiazonic acid
2o9j - rATPase+MgF4+cyclopiazonic acid
1kju, 3n5k - rATPase E2 state
2c9m - rATPase Ca2E1 state
1t5s, 3n8g - rATPase Ca2E1 state+AMPPCP
- 4nab - rATPase Ca2E1 state (mutant) +AMPPCP
- 4nab - rATPase Ca2E1 state (mutant) +AMPPCP
1t5t - rATPase Ca2E1 state+ADP+AlF4
1su4 - rATPase +2Ca2
2by4, 2yfy, 3nal, 3nam, 3nan, 4uu1, 4uu0, 4j2t, 5a3s - rATPase HNE2 state+thapsigargin derivative
Zn+2 transporting ATPase
2ofg, 2ofh - sATPase N-terminal – NMR
K+ transporting ATPase
2a00, 2a29 - EcATPase NBD of KdpB+AMPPNP– Escherichia coli – NMR
1svj, 1u7q - EcATPase NBD of KdpB – NMR
2ynr, 4ux2, 4ux1, 5y0b – pATPase – Cryo EM
As+ transporting ATPase
1ii0, 1f48 - EcATPase
1ihu – EcATPase+Mg+ADP+AlF3
1ii9 - EcATPase
3h84, 3idq, 3a36, 3a37 - yATPase GET3
3sja, 3sjb, 3sjc, 3sjd, 3zs8, 3zs9, 3b2e, 3vlc - yATPase GET3 + GET1 cystolic domain
3ibg - ATPase GET3 – Aspergillus fumigatus
H+ transporting ATPase
5ksd - AtATPase C terminal truncated
1mhs - ATPase – Neurospora crassa
Na+ transporting ATPase
2db4, 3aou - EhATPase subunit K – Enterococcus hirae
3aon - EhATPase subunits D,G
3vr2 - EhATPase subunits A,B
3vr4, 3vr5 - EhATPase subunits A,B,D,G
3vr3 - EhATPase subunits A,B + AMPPNP
3vr6 - EhATPase subunits A,B,D,G + AMPPNP
1yce - ATPase rotor ring – Ilyobacter tartaricus
H/K transporting ATPase
1iwc, 1iwf - pATPase NBD
3ixz - pATPase a+AlF4
2xzb – pATPase subunits α, β
Mg+2 transporting ATPase
3gwi – EcATPase P-1 NBD
Arg/ornithine transporting ATPase
3md0 – MtATPase+GDP – Mycobacterium tuberculosis
1kmh - ATPase alpha subunit+tentoxin – spinach
1h8e – cATPase+ADP+AlF4+ADP+SO4 - cow
1h8h - cATPase+ AMPPNP
1efr - cATPase+efrapeptin
3fks – yATPase
3ea0 – ATPase ParA, fragment – Chlorobium tepidum
2qen – ATPase (mutant) Walker-type – Pyrococcus abyssi
3cf0, 3cf1, 3cf3 – mATPase NBD+ADP – mouse
3cf2 - mATPase NBD+ADP+AMP-PNP
2r31, 2p4x – PdATPase ATP12
2zd2 – PdATPase (mutant) ATP12
1d8s – EcATPase F1
1vdz – PhATPase subunit A – Pyrococcus horikoshii
- Monosaccharide transporting ATPase
RNA-dependent ATPaseRNA-dependent ATPase
3eaq, 3i31, 3i32 – TtATPase fragment
3mwj – TtATPase N-terminal (mutant)
3mwk, 3nbf – TtATPase N-terminal + 8-oxo-AMP
3mwl - TtATPase N-terminal (mutant) + 8-oxoadenine
3nej - TtATPase reca-like domain (mutant)
- DNA-dependent ATPase
- 5tnu - ATPase – Sulfolobus tokodaii
- 5tnu - ATPase – Sulfolobus tokodaii
- ATP-dependent ATPase
Proteasome-associated ATPaseProteasome-associated ATPase
3fp9, 3m9b, 3m9h – MtATPase intern domain
3m91, 3m9d - MtATPase coiled coil domain + protein PUP
3kw6 – hATPase 5
Transitional endoplasmic reticulum ATPaseTransitional endoplasmic reticulum ATPase
- 5c19 – hTer-ATPase (mutant)
- 5c19 – hTer-ATPase (mutant)
3hu1, 3hu2, 3hu3, 5ftn, 5ftm, 5ftl, 5ftk, 5ftj – hTer-ATPase + ATPGS
3qc8, 3qq8, 3qwz - hTer-ATPase N terminal + FAS-associated factor 1
3qq7 - hTer-ATPase N terminal
3tiw - hTer-ATPase N terminal + E3 ubiquitin-protein ligase peptide
- 5c1b - hTer-ATPase N terminal + UFD1--SHP peptide
- 5glf - hTer-ATPase N terminal + derlin-1 peptide
- 5epp - hTer-ATPase N terminal + rhomboid-related protein 4 peptide
- 4kdl, 4kdi - hTer-ATPase N terminal + ubiquitin thioesterase OTU1
- 5b6c - hTer-ATPase N terminal + ubiquitin fusion degradation protein
- 5ifw, 5ifs - hTer-ATPase + tether containing UBX domain
- 5x4l - hTer-ATPase + UBX domain-containing protein
- 5kiy, 5kiw - hTer-ATPase (mutant) + Selenoprotein S
- 1s3s - mTer-ATPase ND1 domain + P47 C terminal
- 4rv0 - Ter-ATPase N terminal + nuclear protein localization protein – Drosophila melanogaster
- 5c1b - hTer-ATPase N terminal + UFD1--SHP peptide
- Sarcoplasmic/endoplasmic reticulum ATPase
LAO/AO transport system ATPaseLAO/AO transport system ATPase
3nxs – ATPase – Mycobacterium smegmatis
DNA double-strand repair ATPase (Rad50)DNA double-strand repair ATPase (Rad50)
3aux – MjRad50 – Methanocaldococcus jannaschii
3auy - MjRad50 + ADP
3av0 - MjRad50 + ATP
3qg5 – Rad50 NBD + MRE11 – Thermotoga maritima
3qkr, 3qks, 3qf7 - PfRad50 NBD + MRE11 – Pyrococcus furiosus
3qkt - PfRad50 NBD + AMPPNP
3qku - PfRad50 NBD + AMPPNP + MRE11
MipZ ATPaseMipZ ATPase
2xit, 2xj4 – CcMipZ – Caulobacter crescentus
2xj9 – CcMipZ (mutant)
- ATPase Rava
3nbx – EcATPase Rava + ADP
FlaI ATPase
4ihq, 4ii7 – ATPase (mutant) – Sulfolobus acidocaldarius
- The RuvBL1/RuvBL2 complex (ATPase)
- RuvBL1/RuvBL2 complex (ATPase) - Structural and functional insights into a dodecameric molecular machine[1]
- RuvBL1/RuvBL2 complex (ATPase) - Structural and functional insights into a dodecameric molecular machine[1]
ReferencesReferences
- ↑ Gorynia S, Bandeiras TM, Pinho FG, McVey CE, Vonrhein C, Round A, Svergun DI, Donner P, Matias PM, Carrondo MA. Structural and functional insights into a dodecameric molecular machine - The RuvBL1/RuvBL2 complex. J Struct Biol. 2011 Sep 10. PMID:21933716 doi:10.1016/j.jsb.2011.09.001