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- EMDB-32036: Structure of recombinant RyR2 mutant K4593A (EGTA dataset) -

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Basic information

Entry
Database: EMDB / ID: EMD-32036
TitleStructure of recombinant RyR2 mutant K4593A (EGTA dataset)
Map dataStructure of recombinant RyR2 mutant K4593A (EGTA dataset)
Sample
  • Complex: Recombinant RyR2 mutant K4593A in the presence of EGTA
    • Complex: Ryanodine receptor 2
      • Protein or peptide: Ryanodine receptor 2
    • Complex: FKBP1B
      • Protein or peptide: Peptidyl-prolyl cis-trans isomerase FKBP1B
  • Ligand: ZINC ION
KeywordsCALCIUM / CALCIUM CHANNEL / CALCIUM TRANSPORT / ION TRANSPORT / IONIC CHANNEL / METAL TRANSPORT / ER/SR MEMBRANE / RYANODINE RECEPTOR / RYANODINE / RECEPTOR / WILD TYPE / MEMBRANE PROTEIN
Function / homology
Function and homology information


manganese ion transmembrane transport / establishment of protein localization to endoplasmic reticulum / type B pancreatic cell apoptotic process / Purkinje myocyte to ventricular cardiac muscle cell signaling / suramin binding / regulation of SA node cell action potential / regulation of atrial cardiac muscle cell action potential / left ventricular cardiac muscle tissue morphogenesis / organic cyclic compound binding / regulation of AV node cell action potential ...manganese ion transmembrane transport / establishment of protein localization to endoplasmic reticulum / type B pancreatic cell apoptotic process / Purkinje myocyte to ventricular cardiac muscle cell signaling / suramin binding / regulation of SA node cell action potential / regulation of atrial cardiac muscle cell action potential / left ventricular cardiac muscle tissue morphogenesis / organic cyclic compound binding / regulation of AV node cell action potential / calcium-induced calcium release activity / sarcoplasmic reticulum calcium ion transport / Stimuli-sensing channels / Ion homeostasis / regulation of ventricular cardiac muscle cell action potential / ventricular cardiac muscle cell action potential / positive regulation of sequestering of calcium ion / cyclic nucleotide binding / negative regulation of calcium-mediated signaling / embryonic heart tube morphogenesis / cardiac muscle hypertrophy / negative regulation of insulin secretion involved in cellular response to glucose stimulus / calcium ion transport into cytosol / negative regulation of release of sequestered calcium ion into cytosol / neuronal action potential propagation / insulin secretion involved in cellular response to glucose stimulus / ryanodine-sensitive calcium-release channel activity / response to caffeine / response to muscle activity / A band / release of sequestered calcium ion into cytosol by sarcoplasmic reticulum / calcium ion transmembrane import into cytosol / response to redox state / protein maturation by protein folding / 'de novo' protein folding / negative regulation of heart rate / positive regulation of heart rate / FK506 binding / negative regulation of cytosolic calcium ion concentration / positive regulation of axon regeneration / protein kinase A regulatory subunit binding / extrinsic component of cytoplasmic side of plasma membrane / cellular response to caffeine / channel regulator activity / protein kinase A catalytic subunit binding / response to magnesium ion / positive regulation of the force of heart contraction / intracellularly gated calcium channel activity / detection of calcium ion / smooth muscle contraction / response to vitamin E / smooth endoplasmic reticulum / regulation of cardiac muscle contraction by regulation of the release of sequestered calcium ion / calcium channel inhibitor activity / striated muscle contraction / regulation of release of sequestered calcium ion into cytosol by sarcoplasmic reticulum / T cell proliferation / Ion homeostasis / release of sequestered calcium ion into cytosol / regulation of cytosolic calcium ion concentration / calcium channel complex / cellular response to epinephrine stimulus / sarcoplasmic reticulum membrane / response to muscle stretch / regulation of heart rate / sarcomere / sarcoplasmic reticulum / establishment of localization in cell / peptidylprolyl isomerase / peptidyl-prolyl cis-trans isomerase activity / calcium-mediated signaling / calcium ion transmembrane transport / response to hydrogen peroxide / calcium channel activity / Stimuli-sensing channels / sarcolemma / Z disc / response to calcium ion / intracellular calcium ion homeostasis / calcium ion transport / nuclear envelope / positive regulation of cytosolic calcium ion concentration / monoatomic ion transmembrane transport / protein refolding / scaffold protein binding / transmembrane transporter binding / response to hypoxia / calmodulin binding / signaling receptor binding / calcium ion binding / protein kinase binding / enzyme binding / protein-containing complex / identical protein binding / membrane / cytosol / cytoplasm
Similarity search - Function
Ryanodine receptor, SPRY domain 2 / : / Ryanodine receptor junctional solenoid repeat / Ryanodine Receptor TM 4-6 / Ryanodine receptor / Ryanodine receptor, SPRY domain 1 / Ryanodine receptor, SPRY domain 3 / Ryanodine Receptor TM 4-6 / Ryanodine receptor Ryr / RyR domain ...Ryanodine receptor, SPRY domain 2 / : / Ryanodine receptor junctional solenoid repeat / Ryanodine Receptor TM 4-6 / Ryanodine receptor / Ryanodine receptor, SPRY domain 1 / Ryanodine receptor, SPRY domain 3 / Ryanodine Receptor TM 4-6 / Ryanodine receptor Ryr / RyR domain / RyR/IP3 receptor binding core, RIH domain superfamily / RyR/IP3R Homology associated domain / Inositol 1,4,5-trisphosphate/ryanodine receptor / RIH domain / RyR and IP3R Homology associated / Inositol 1,4,5-trisphosphate/ryanodine receptor / : / RIH domain / : / MIR motif / MIR domain / MIR domain profile. / Domain in ryanodine and inositol trisphosphate receptors and protein O-mannosyltransferases / Mir domain superfamily / SPRY domain / B30.2/SPRY domain / B30.2/SPRY domain profile. / B30.2/SPRY domain superfamily / Domain in SPla and the RYanodine Receptor. / SPRY domain / FKBP-type peptidyl-prolyl cis-trans isomerase domain profile. / FKBP-type peptidyl-prolyl cis-trans isomerase domain / FKBP-type peptidyl-prolyl cis-trans isomerase / Peptidyl-prolyl cis-trans isomerase domain superfamily / EF-hand domain pair / EF-hand domain / Ion transport domain / Ion transport protein / EF-hand domain pair / Concanavalin A-like lectin/glucanase domain superfamily
Similarity search - Domain/homology
Ryanodine receptor 2 / Peptidyl-prolyl cis-trans isomerase FKBP1B
Similarity search - Component
Biological speciesMus musculus (house mouse) / Homo sapiens (human)
Methodsingle particle reconstruction / cryo EM / Resolution: 3.3 Å
AuthorsKobayashi T / Tsutsumi A
Funding support Japan, 6 items
OrganizationGrant numberCountry
Japan Society for the Promotion of Science (JSPS)JP16H04748 Japan
Japan Society for the Promotion of Science (JSPS)JP19K07105 Japan
Japan Society for the Promotion of Science (JSPS)19H03404 Japan
Japan Society for the Promotion of Science (JSPS)JP21H02411 Japan
Japan Agency for Medical Research and Development (AMED)JP21am0101080 Japan
Japan Agency for Medical Research and Development (AMED)19ek0109202 Japan
CitationJournal: Nat Commun / Year: 2022
Title: Molecular basis for gating of cardiac ryanodine receptor explains the mechanisms for gain- and loss-of function mutations.
Authors: Takuya Kobayashi / Akihisa Tsutsumi / Nagomi Kurebayashi / Kei Saito / Masami Kodama / Takashi Sakurai / Masahide Kikkawa / Takashi Murayama / Haruo Ogawa /
Abstract: Cardiac ryanodine receptor (RyR2) is a large Ca release channel in the sarcoplasmic reticulum and indispensable for excitation-contraction coupling in the heart. RyR2 is activated by Ca and RyR2 ...Cardiac ryanodine receptor (RyR2) is a large Ca release channel in the sarcoplasmic reticulum and indispensable for excitation-contraction coupling in the heart. RyR2 is activated by Ca and RyR2 mutations are implicated in severe arrhythmogenic diseases. Yet, the structural basis underlying channel opening and how mutations affect the channel remains unknown. Here, we address the gating mechanism of RyR2 by combining high-resolution structures determined by cryo-electron microscopy with quantitative functional analysis of channels carrying various mutations in specific residues. We demonstrated two fundamental mechanisms for channel gating: interactions close to the channel pore stabilize the channel to prevent hyperactivity and a series of interactions in the surrounding regions is necessary for channel opening upon Ca binding. Mutations at the residues involved in the former and the latter mechanisms cause gain-of-function and loss-of-function, respectively. Our results reveal gating mechanisms of the RyR2 channel and alterations by pathogenic mutations at the atomic level.
History
DepositionOct 9, 2021-
Header (metadata) releaseAug 10, 2022-
Map releaseAug 10, 2022-
UpdateJun 19, 2024-
Current statusJun 19, 2024Processing site: PDBj / Status: Released

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Structure visualization

Supplemental images

Downloads & links

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Map

FileDownload / File: emd_32036.map.gz / Format: CCP4 / Size: 125 MB / Type: IMAGE STORED AS FLOATING POINT NUMBER (4 BYTES)
AnnotationStructure of recombinant RyR2 mutant K4593A (EGTA dataset)
Projections & slices

Image control

Size
Brightness
Contrast
Others
AxesZ (Sec.)Y (Row.)X (Col.)
1.33 Å/pix.
x 320 pix.
= 424.96 Å
1.33 Å/pix.
x 320 pix.
= 424.96 Å
1.33 Å/pix.
x 320 pix.
= 424.96 Å

Surface

Projections

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Slices (1/2)

Slices (2/3)

Images are generated by Spider.

Voxel sizeX=Y=Z: 1.328 Å
Density
Contour LevelBy AUTHOR: 0.032
Minimum - Maximum-0.09271631 - 0.19240667
Average (Standard dev.)0.00047292814 (±0.0075902897)
SymmetrySpace group: 1
Details

EMDB XML:

Map geometry
Axis orderXYZ
Origin000
Dimensions320320320
Spacing320320320
CellA=B=C: 424.96 Å
α=β=γ: 90.0 °

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Supplemental data

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Sample components

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Entire : Recombinant RyR2 mutant K4593A in the presence of EGTA

EntireName: Recombinant RyR2 mutant K4593A in the presence of EGTA
Components
  • Complex: Recombinant RyR2 mutant K4593A in the presence of EGTA
    • Complex: Ryanodine receptor 2
      • Protein or peptide: Ryanodine receptor 2
    • Complex: FKBP1B
      • Protein or peptide: Peptidyl-prolyl cis-trans isomerase FKBP1B
  • Ligand: ZINC ION

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Supramolecule #1: Recombinant RyR2 mutant K4593A in the presence of EGTA

SupramoleculeName: Recombinant RyR2 mutant K4593A in the presence of EGTA
type: complex / ID: 1 / Parent: 0 / Macromolecule list: #1-#2 / Details: in complex with FKBP12.6
Source (natural)Organism: Mus musculus (house mouse)

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Supramolecule #2: Ryanodine receptor 2

SupramoleculeName: Ryanodine receptor 2 / type: complex / ID: 2 / Parent: 1 / Macromolecule list: #1
Source (natural)Organism: Homo sapiens (human)

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Supramolecule #3: FKBP1B

SupramoleculeName: FKBP1B / type: complex / ID: 3 / Parent: 1 / Macromolecule list: #2

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Macromolecule #1: Ryanodine receptor 2

MacromoleculeName: Ryanodine receptor 2 / type: protein_or_peptide / ID: 1 / Number of copies: 4 / Enantiomer: LEVO
Source (natural)Organism: Mus musculus (house mouse)
Molecular weightTheoretical: 533.595438 KDa
Recombinant expressionOrganism: Homo sapiens (human)
SequenceString: MADAGEGEDE IQFLRTDDEV VLQCTATIHK EQQKLCLAAE GFGNRLCFLE STSNSKNVPP DLSICTFVLE QSLSVRALQE MLANTVEKS EGQVDVEKWK FMMKTAQGGG HRTLLYGHAI LLRHSYSGMY LCCLSTSRSS TDKLAFDVGL QEDTTGEACW W TIHPASKQ ...String:
MADAGEGEDE IQFLRTDDEV VLQCTATIHK EQQKLCLAAE GFGNRLCFLE STSNSKNVPP DLSICTFVLE QSLSVRALQE MLANTVEKS EGQVDVEKWK FMMKTAQGGG HRTLLYGHAI LLRHSYSGMY LCCLSTSRSS TDKLAFDVGL QEDTTGEACW W TIHPASKQ RSEGEKVRVG DDLILVSVSS ERYLHLSYGN SSWHVDAAFQ QTLWSVAPIS SGSEAAQGYL IGGDVLRLLH GH MDECLTV PSGEHGEEQR RTVHYEGGAV SVHARSLWRL ETLRVAWSGS HIRWGQPFRL RHVTTGKYLS LMEDKNLLLM DKE KADVKS TAFAFRSSKE KLDVGVRKEV DGMGTSEIKY GDSICYIQHV DTGLWLTYQA VDVKSARMGS IQRKAIMHHE GHMD DGLNL SRSQHEESRT ARVIRSTVFL FNRFIRGLDA LSKKVKLPTI DLPIESVSLS LQDLIGYFHP PDEHLEHEDK QNRLR ALKN RQNLFQEEGM INLVLECIDR LHVYSSAAHF ADVAGREAGE SWKSILNSLY ELLAALIRGN RKNCAQFSGS LDWLIS RLE RLEASSGILE VLHCVLVESP EALNIIKEGH IKSIISLLDK HGRNHKVLDV LCSLCVCHGV AVRSNQHLIC DNLLPGR DL LLQTRLVNHV SSMRPNIFLG VSEGSAQYKK WYYELMVDHT EPFVTAEATH LRVGWASTEG YSPYPGGGEE WGGNGVGD D LFSYGFDGLH LWSGCIARTV SSPNQHLLRT DDVISCCLDL SAPSISFRIN GQPVQGMFEN FNIDGLFFPV VSFSAGIKV RFLLGGRHGE FKFLPPPGYA ACYEAVLPKE KLKVEHSREY KQERTYTRDL LGPTVSLTQA AFTPVPVDTS QIVLPPHLER IRERLAENI HELWVMNKIE LGWQYGPVRD DNKRQHPCLV EFCKLPEQER NYNLQMSLET LKTLLALGCH VGIADEHAEE K VKKMKLPK NYQLTSGYKP APMDLSFIKL TPSQEAMVDK LAENAHNVWA RDRIRQGWTY GIQQDVKNRR NPRLVPYTLL DD RTKKSNK DSLREAVRTL LGYGYHLEAP DQDHASRAEV CSGTGERFRI FRAEKTYAVK AGRWYFEFEA VTAGDMRVGW SRP GCQPDL ELGSDDRAFA FDGFKAQRWH QGNEHYGRSW QAGDVVGCMV DMNEHTMMFT LNGEILLDDS GSELAFKDFD VGDG FIPVC SLGVAQVGRM NFGKDVSTLK YFTICGLQEG YEPFAVNTNR DITMWLSKRL PQFLQVPSNH EHIEVTRIDG TIDSS PCLK VTQKSFGSQN NNTDIMFYRL SMPIECA(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)DSD FEVLMKTAHG HLVPDRIDKD KETPKPEFNN HKDYAQEKPS RLKQ(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) PLSAG LFKSEHKNPV PQCPPRLHVQ FLSHVLWSRM PNQFLKVDVS RISERQGWLV QCLDPLQFMS LHIPEENRSV DILEL TEQE ELLQFHYHTL RLYSAVCALG NHRVAHALCS HVDEPQLLYA IENKYMPGLL RAGYYDLLID IHLSSYATAR LMMNNE FIV PMTEETKSIT LFPDENKKHG LPGIGLSTSL RPRMRFSSPS FVSISNDCYQ YSPEFPLDIL KAKTIQMLTE AVKEGSL HA RDPVGGTTEF LFVPLIKLFY TLLIMGIFHN EDLKHILQLI EPSVFKEAAV PEEEGGTPEK EISIEDAKLE GEEEAKGG K RPKEGLLQMK LPEPVKLQMC LLLQYLCDCQ VRHRIEAIVA FSDDFVAKLQ DNQRFRYNEV MQALNMSAAL TARKTREFR SPPQEQINML LNFKDDKSEC PCPEEIRDQL LDFHEDLMTH CGIELDEDGS LDGSNDLTIR GRLLSLVEKV TYLKKKQAEK PVASDSRKC SSLQQLISET MVRWAQESVI EDPELVRAMF VLLHRQYDGI GGLVRALPKT YTINGVSVED TINLLASLGQ I RSLLSVRM GKEEEKLMIR GLGDIMNNKV FYQHPNLMRA LGMHETVMEV MVNVLGGGES KEITFPKMVA NCCRFLCYFC RI SRQNQKA MFDHLSYLLE NSSVGLASPA MRGSTPLDVA AASVMDNNEL ALALREPDLE KVVRYLAGCG LQSCQMLVSK GYP DIGWNP VEGERYLDFL RFAVFCNGES VEENANVVVR LLIRRPECFG PALRGEGGNG LLAAMEEAIK IAEDPSRDGP SPTS GSSKT LDIEEEEDDT IHMGNAIMTF YAALIDLLGR CAPEMHLIHA GKGEAIRIRS ILRSLIPLGD LVGVISIAFQ MPTIA KDGK VVEPDMSAGF CPDHKAAMVL FLDRVYGIEV QDFLLHLLEV GFLPDLRAAA SLDTAALS(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) 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PS(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) 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(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) (UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK)(UNK) PRHRAVNLFL QGYEKSWIET EEHYFEDKLI EDLAK PGAE LPEEDEAMKR VDPLHQLILL FSRTALTEKC KLEEDFLYMA YADIMAKSCH DEEDDDGEEE VKSFEEKEME KQKLLY QQA RLHDRGAAEM VLQTISASKG ETGPMVAATL KLGIAILNGG NSTVQQKMLD YLKEKKDVGF FQSLAGLMQS CSVLDLN AF ERQNKAEGLG MVTEEGSGEK VLQDDEFTCD LFRFLQLLCE GHNSDFQNYL RTQTGNNTTV NIIISTVDYL LRVQESIS D FYWYYSGKDI IDEQGQRNFS KAIQVAKQVF NTLTEYIQGP CTGNQQSLAH SRLWDAVVGF LHVFAHMQMK LSQDSSQIE LLKELMDLQK DMVVMLLSML EGNVVNGTIG KQMVDMLVES SNNVEMILKF FDMFLKLKDL TSSDTFKEYD PDGKGVISKR DFHKAMESH KHYTQSETEF LLSCAETDEN ETLDYEEFVK RFHEPAKDIG FNVAVLLTNL SEHMPNDTRL QTFLELAESV L NYFQPFLG RIEIMGSAKR IERVYFEISE SSRTQWEKPQ VKESKRQFIF DVVNEGGEKE KMELFVNFCE DTIFEMQLAA QI SESDLNE RLANKEESEK ERPEEQAPRM GFFSLLTIQS ALFALRYNVL TLVRMLSLKS LKKQMKRMKK MTVKDMVLAF FSS YWSVFV TLLHFVASVC RGFFRIVSSL LLGGSLVEGA KKIKVAELLA NMPDPTQDEV RGDEEEGERK PLESALPSED LTDL KELTE ESDLLSDIFG LDLKREGGQY KLIPHNPNAG LSDLMTNPVP VPEVQEKFQE QKAKEEKEEK EETKSEPEKA EGEDG EKEE KAKDEKSKQK LRQLHTHRYG EPEVPESAFW KKIIAYQQKL LNYFARNFYN MRMLALFVAF AINFILLFYK VSTSSV VEG KELPTRTSSD TAKVTNSLDS SPHRIIAVHY VLEESSGYME PTLRILAILH TIISFFCIIG YYCLAVPLVI FKREKEV AR KLEFDGLYIT EQPSEDDIKG QWDRLVINTQ SFPNNYWDKF VKRKVMDKYG EFYGRDRISE LLGMDKAALD FSDAREKK K PKKDSSLSAV LNSIDVKYQM WKLGVVFTDN SFLYLAWYMT MSVLGHYNNF FFAAHLLDIA MGFKTLRTIL SSVTHNGKQ LVLTVGLLAV VVYLYTVVAF NFFRKFYNKS EDGDTPDMKC DDMLTCYMFH MYVGVRAGGG IGDEIEDPAG DEYEIYRIIF DITFFFFVI VILLAIIQGL IIDAFGELRD QQEQVKEDME TKCFICGIGN DYFDTVPHGF ETHTLQEHNL ANYLFFLMYL I NKDETEHT GQESYVWKMY QERCWEFFPA GDCFRKQYED QLN

UniProtKB: Ryanodine receptor 2, Ryanodine receptor 2, Ryanodine receptor 2, Ryanodine receptor 2, Ryanodine receptor 2

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Macromolecule #2: Peptidyl-prolyl cis-trans isomerase FKBP1B

MacromoleculeName: Peptidyl-prolyl cis-trans isomerase FKBP1B / type: protein_or_peptide / ID: 2 / Number of copies: 4 / Enantiomer: LEVO / EC number: peptidylprolyl isomerase
Source (natural)Organism: Homo sapiens (human)
Molecular weightTheoretical: 18.984316 KDa
Recombinant expressionOrganism: Escherichia coli (E. coli)
SequenceString:
MGSSHHHHHH SSGLVPRGSH MASMDEKTTG WRGGHVVEGL AGELEQLRAR LEHHPQGQRE PGSGGSGGTG VEIETISPGD GRTFPKKGQ TCVVHYTGML QNGKKFDSSR DRNKPFKFRI GKQEVIKGFE EGAAQMSLGQ RAKLTCTPDV AYGATGHPGV I PPNATLIF DVELLNLE

UniProtKB: Peptidyl-prolyl cis-trans isomerase FKBP1B

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Macromolecule #3: ZINC ION

MacromoleculeName: ZINC ION / type: ligand / ID: 3 / Number of copies: 4 / Formula: ZN
Molecular weightTheoretical: 65.409 Da

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Experimental details

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Structure determination

Methodcryo EM
Processingsingle particle reconstruction
Aggregation stateparticle

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Sample preparation

BufferpH: 7.4
Sugar embeddingMaterial: buffer
VitrificationCryogen name: ETHANE

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Electron microscopy

MicroscopeFEI TITAN KRIOS
Image recordingFilm or detector model: GATAN K3 (6k x 4k) / Average electron dose: 60.0 e/Å2
Electron beamAcceleration voltage: 300 kV / Electron source: FIELD EMISSION GUN
Electron opticsIllumination mode: FLOOD BEAM / Imaging mode: BRIGHT FIELD
Experimental equipment
Model: Titan Krios / Image courtesy: FEI Company

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Image processing

Startup modelType of model: PDB ENTRY
PDB model - PDB ID:
Final reconstructionResolution.type: BY AUTHOR / Resolution: 3.3 Å / Resolution method: FSC 0.143 CUT-OFF / Number images used: 68394
Initial angle assignmentType: MAXIMUM LIKELIHOOD
Final angle assignmentType: MAXIMUM LIKELIHOOD

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