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182 a.a.
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181 a.a.
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20 a.a.
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* Residue conservation analysis
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PDB id:
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Immune system
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Title:
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Crystal structure of hla-dq0602 in complex with a hypocretin peptide
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Structure:
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Hla class ii histocompatibility antigen. Chain: a. Synonym: qa1 0602, Dq(5) alpha chain, dc-1 alpha chain. Engineered: yes. Hla class ii histocompatibility antigen. Chain: b. Synonym: dqb1 0602, Dqb1 0602 Beta chain, dq(5), dc-1. Engineered: yes. Orexin.
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Source:
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Homo sapiens. Human. Organism_taxid: 9606. Expressed in: drosophila melanogaster. Expression_system_taxid: 7227. Expression_system_cell_line: s2. Expression_system_taxid: 7227
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Biol. unit:
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Trimer (from PDB file)
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Resolution:
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1.80Å
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R-factor:
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0.189
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R-free:
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0.205
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Authors:
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C.Siebold,B.E.Hansen,J.R.Wyer,K.Harlos,R.E.Esnouf,A.Svejgaard, J.I.Bell,J.L.Strominger,E.Y.Jones,L.Fugger
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Key ref:
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C.Siebold
et al.
(2004).
Crystal structure of HLA-DQ0602 that protects against type 1 diabetes and confers strong susceptibility to narcolepsy.
Proc Natl Acad Sci U S A,
101,
1999-2004.
PubMed id:
DOI:
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Date:
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22-Jan-04
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Release date:
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05-Feb-04
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PROCHECK
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Headers
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References
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E9PMV2
(E9PMV2_HUMAN) -
Major histocompatibility complex, class II, DQ alpha 1 (Fragment) from Homo sapiens
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Seq: Struc:
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214 a.a.
182 a.a.*
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DOI no:
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Proc Natl Acad Sci U S A
101:1999-2004
(2004)
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PubMed id:
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Crystal structure of HLA-DQ0602 that protects against type 1 diabetes and confers strong susceptibility to narcolepsy.
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C.Siebold,
B.E.Hansen,
J.R.Wyer,
K.Harlos,
R.E.Esnouf,
A.Svejgaard,
J.I.Bell,
J.L.Strominger,
E.Y.Jones,
L.Fugger.
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ABSTRACT
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The MHC class II molecule DQ0602 confers strong susceptibility to narcolepsy but
dominant protection against type 1 diabetes. The crystal structure of DQ0602
reveals the molecular features underlying these contrasting genetic properties.
Structural comparisons to homologous DQ molecules with differential disease
associations highlight a previously unrecognized interplay between the volume of
the P6 pocket and the specificity of the P9 pocket, which implies that
presentation of an expanded peptide repertoire is critical for dominant
protection against type 1 diabetes. In narcolepsy, the volume of the P4 pocket
appears central to the susceptibility, suggesting that the presentation of a
specific peptide population plays a major role.
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Selected figure(s)
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Figure 1.
Fig. 1. The crystal structure of DQ0602-hypocretin. (A) The
solvent-accessible surface of the DQ0602 peptide binding groove
is colored by electrostatic potential (blue, positive charge;
red, negative charge) viewed onto the TCR recognition surface.
The residues of the peptide are shown as ball-and-stick in
atomic coloring (blue, nitrogen; red, oxygen; yellow, peptide
carbon). The major pockets within the groove are labeled in the
standard MHC class II nomenclature. (B) A composite omit map
contoured at 1 is shown in blue
chicken wire. The peptide is depicted in ball-and-stick colored
as in A and viewed through the 1-helix. (C) A
superposition of the peptides from the DQ0602-hypocretin and
DQ0302-insulinB structures. The peptides are shown with atomic
coloring as in A except for the insulinB peptide carbon atoms
(green). The view is as in B, and the residues are labeled in
the standard MHC class II nomenclature. (D) Superposition of the
DQ0602 and DQ0302 peptide binding grooves. The C traces
for DQ0602 (gray) and for DQ0302 (green) are viewed as in A. The
well ordered residues of the hypocretin peptide and linker are
shown with atomic coloring (peptide coloring as in A; orange,
linker carbon). Residues 46 to 55 and 85
to
91 show significant main
chain and side chain conformational changes between the two MHC
class II structures. The C positions of these
residues in DQ0602 are indicated by spheres (blue, -chain;
magenta, -chain). The concerted
conformational changes impact on the P1 pocket (see text) and on
the heterodimer interface. In particular, residue 48 changes
from leucine in DQ0302 to tryptophan in DQ0602, and the side
chain of Trp-48 (shown in blue sticks)
is reoriented to form a tight, hydrophobic interaction at the
interface with the 2 domain.
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Figure 3.
Fig. 3. The P6 pocket and T1D. (A) Stereoview of a
superposition of selected residues from DQ0602-hypocretin with
the equivalent residues from DQ0302-insulinB. Main chain is
shown as coil, and selected residue side chains are depicted as
ball-and-stick (yellow, hypocretin peptide; green, DQ0602;
magenta, DQ0302-insulinB). The P6 residue in both the hypocretin
and insulinB peptides is valine. (B) Stereoview of the
DQ0602-hypocretin complex as in A. The volume bound by the blue
chicken wire shows the increase in the P6 pocket size of DQ0602
when compared with DQ0302. The volume was defined by the program
VOLUMES as local difference between the solvent-accessible
surfaces of the two binding grooves after superposition.
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Figures were
selected
by an automated process.
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Literature references that cite this PDB file's key reference
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PubMed id
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Reference
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B.E.Hansen,
C.H.Nielsen,
H.O.Madsen,
L.P.Ryder,
B.K.Jakobsen,
and
A.Svejgaard
(2011).
The HLA-DP2 protein binds the immunodominant epitope from myelin basic protein, MBP85-99, with high affinity.
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Tissue Antigens,
77,
229-234.
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D.K.Sethi,
D.A.Schubert,
A.K.Anders,
A.Heroux,
D.A.Bonsor,
C.P.Thomas,
E.J.Sundberg,
J.Pyrdol,
and
K.W.Wucherpfennig
(2011).
A highly tilted binding mode by a self-reactive T cell receptor results in altered engagement of peptide and MHC.
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J Exp Med,
208,
91.
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PDB code:
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F.Ling,
L.Q.Wei,
T.Wang,
H.B.Wang,
M.Zhuo,
H.L.Du,
J.F.Wang,
and
X.N.Wang
(2011).
Characterization of the major histocompatibility complex class II DOB, DPB1, and DQB1 alleles in cynomolgus macaques of Vietnamese origin.
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Immunogenetics,
63,
155-166.
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M.C.Cho,
S.Y.Ko,
H.B.Oh,
Y.S.Heo,
and
O.J.Kwon
(2011).
HLA-DQB1*05:06, a novel HLA-DQB1*05 allele identified by sequence-based typing.
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Tissue Antigens,
77,
344-346.
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N.K.Akers,
J.D.Curry,
L.Conde,
P.M.Bracci,
M.T.Smith,
and
C.F.Skibola
(2011).
Association of HLA-DQB1 alleles with risk of follicular lymphoma.
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Leuk Lymphoma,
52,
53-58.
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P.Benkert,
M.Biasini,
and
T.Schwede
(2011).
Toward the estimation of the absolute quality of individual protein structure models.
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Bioinformatics,
27,
343-350.
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A.Fontana,
H.Gast,
W.Reith,
M.Recher,
T.Birchler,
and
C.L.Bassetti
(2010).
Narcolepsy: autoimmunity, effector T cell activation due to infection, or T cell independent, major histocompatibility complex class II induced neuronal loss?
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Brain,
133,
1300-1311.
|
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C.Brorsson,
N.Tue Hansen,
R.Bergholdt,
S.Brunak,
and
F.Pociot
(2010).
The type 1 diabetes - HLA susceptibility interactome--identification of HLA genotype-specific disease genes for type 1 diabetes.
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PLoS One,
5,
e9576.
|
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K.Yeturu,
T.Utriainen,
G.J.Kemp,
and
N.Chandra
(2010).
An automated framework for understanding structural variations in the binding grooves of MHC class II molecules.
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BMC Bioinformatics,
11,
S55.
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B.Woelfing,
A.Traulsen,
M.Milinski,
and
T.Boehm
(2009).
Does intra-individual major histocompatibility complex diversity keep a golden mean?
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Philos Trans R Soc Lond B Biol Sci,
364,
117-128.
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L.E.Fallang,
E.Bergseng,
K.Hotta,
A.Berg-Larsen,
C.Y.Kim,
and
L.M.Sollid
(2009).
Differences in the risk of celiac disease associated with HLA-DQ2.5 or HLA-DQ2.2 are related to sustained gluten antigen presentation.
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Nat Immunol,
10,
1096-1101.
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S.Caillat-Zucman
(2009).
Molecular mechanisms of HLA association with autoimmune diseases.
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Tissue Antigens,
73,
1-8.
|
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S.Gaseitsiwe,
D.Valentini,
R.Ahmed,
S.Mahdavifar,
I.Magalhaes,
J.Zerweck,
M.Schutkowski,
E.Gautherot,
F.Montero,
A.Ehrnst,
M.Reilly,
and
M.Maeurer
(2009).
Major histocompatibility complex class II molecule-human immunodeficiency virus peptide analysis using a microarray chip.
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Clin Vaccine Immunol,
16,
567-573.
|
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S.Justesen,
M.Harndahl,
K.Lamberth,
L.L.Nielsen,
and
S.Buus
(2009).
Functional recombinant MHC class II molecules and high-throughput peptide-binding assays.
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Immunome Res,
5,
2.
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C.S.Parry,
and
B.R.Brooks
(2008).
A new model defines the minimal set of polymorphism in HLA-DQ and -DR that determines susceptibility and resistance to autoimmune diabetes.
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Biol Direct,
3,
42.
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E.L.Ivansson,
J.J.Magnusson,
P.K.Magnusson,
H.A.Erlich,
and
U.B.Gyllensten
(2008).
MHC loci affecting cervical cancer risk: distinguishing the effects of HLA-DQB1 and non-HLA genes TNF, LTA, TAP1 and TAP2.
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Genes Immun,
9,
613-623.
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E.Mignot
(2008).
Excessive daytime sleepiness: population and etiology versus nosology.
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Sleep Med Rev,
12,
87-94.
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R.A.Hardie,
M.Luo,
B.Bruneau,
E.Knight,
N.J.Nagelkerke,
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C.Wachihi,
E.N.Ngugi,
and
F.A.Plummer
(2008).
Human leukocyte antigen-DQ alleles and haplotypes and their associations with resistance and susceptibility to HIV-1 infection.
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AIDS,
22,
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R.Etzensperger,
R.M.McMahon,
E.Y.Jones,
and
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(2008).
Dissection of the multiple sclerosis associated DR2 haplotype.
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J Autoimmun,
31,
201-207.
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J.L.Black,
and
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Sleep Med Rev,
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G.P.Bondinas,
A.K.Moustakas,
and
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(2007).
The spectrum of HLA-DQ and HLA-DR alleles, 2006: a listing correlating sequence and structure with function.
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Immunogenetics,
59,
539-553.
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R.J.Duquesnoy,
and
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(2007).
HLAMatchmaker: a molecularly based algorithm for histocompatibility determination. V. Eplet matching for HLA-DR, HLA-DQ, and HLA-DP.
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Hum Immunol,
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Narcolepsy with cataplexy.
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Lancet,
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MHC class II proteins and disease: a structural perspective.
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J Immunol,
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A hairpin turn in a class II MHC-bound peptide orients residues outside the binding groove for T cell recognition.
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Proc Natl Acad Sci U S A,
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PDB codes:
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The most recent references are shown first.
Citation data come partly from CiteXplore and partly
from an automated harvesting procedure. Note that this is likely to be
only a partial list as not all journals are covered by
either method. However, we are continually building up the citation data
so more and more references will be included with time.
Where a reference describes a PDB structure, the PDB
code is
shown on the right.
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