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PDBsum entry 1tki
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Serine kinase
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PDB id
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1tki
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Contents |
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* Residue conservation analysis
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Enzyme class:
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E.C.2.7.11.1
- non-specific serine/threonine protein kinase.
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Reaction:
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1.
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L-seryl-[protein] + ATP = O-phospho-L-seryl-[protein] + ADP + H+
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2.
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L-threonyl-[protein] + ATP = O-phospho-L-threonyl-[protein] + ADP + H+
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L-seryl-[protein]
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+
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ATP
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=
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O-phospho-L-seryl-[protein]
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+
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ADP
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+
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H(+)
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L-threonyl-[protein]
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+
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ATP
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=
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O-phospho-L-threonyl-[protein]
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+
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ADP
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+
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H(+)
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Molecule diagrams generated from .mol files obtained from the
KEGG ftp site
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DOI no:
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Nature
395:863-869
(1998)
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PubMed id:
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Structural basis for activation of the titin kinase domain during myofibrillogenesis.
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O.Mayans,
P.F.van der Ven,
M.Wilm,
A.Mues,
P.Young,
D.O.Fürst,
M.Wilmanns,
M.Gautel.
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ABSTRACT
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The giant muscle protein titin (connectin) is essential in the temporal and
spatial control of the assembly of the highly ordered sarcomeres (contractile
units) of striated muscle. Here we present the crystal structure of titin's only
catalytic domain, an autoregulated serine kinase (titin kinase). The structure
shows how the active site is inhibited by a tyrosine of the kinase domain. We
describe a dual mechanism of activation of titin kinase that consists of
phosphorylation of this tyrosine and binding of calcium/calmodulin to the
regulatory tail. The serine kinase domain of titin is the first known
non-arginine-aspartate kinase to be activated by phosphorylation. The
phosphorylated tyrosine is not located in the activation segment, as in other
kinases, but in the P + 1 loop, indicating that this tyrosine is a binding
partner of the titin kinase substrate. Titin kinase phosphorylates the muscle
protein telethonin in early differentiating myocytes, indicating that this
kinase may act in myofibrillogenesis.
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Selected figure(s)
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Figure 2.
Figure 2 Titin kinase constructs used in this study. The
domain pattern of the kinase region of human titin and the
residues of the respective constructs are shown. Fn3,
fibronectin-III-like domain; Ig, immunoglobulin like domain. a,
Kin4 lacks the regulatory tail (RT), leaving a constitutively
active catalytic core. The kin1 construct includes the
regulatory tail. The N-terminal phasing is based on the N
termini of DAP kinase^31 and of Dictyostelium discoideum MLCK42.
b, Two-hybrid screens of human skeletal and cardiac
complementary DNA libraries with kin4 and kin4(K36A) yield
multiple overlapping clones from the regulatory tail, showing
that there is a functional binding site in the active site of
kin4. The strength of interaction is given by HIS3 signals and
by -galactosidase
activity30. The first residue in the cardiac titin sequence of
three representative clones is shown at the left.
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Figure 4.
Figure 4 Active-site conformation of the autoinhibited forms
of titin kinase, twitchin and IRK. a, The active site of titin
kinase. The guanidinium group of R129 forms short hydrogen bonds
with the side chains of D127 and Y170 from the P+ 1 loop. There
is a weak direct hydrogen bond between D127 and Y170 (3.1 ring
in length). D127 forms further hydrogen bonds with Q150. b,
Twitchin active site^10. The catalytic aspartate, D174 forms
hydrogen bonds with K176, Q200 and R355 from the regulatory
tail. At the position of Y170 in titin kinase, there is an
alanine in twitchin. In the autoinhibited twitchin structure^10,
the catalytic aspartate is blocked by a salt bridge with an
arginine (R355 in twitchin) of the regulatory tail, suggesting a
different activation mechanism than for titin kinase. In titin
kinase, the equivalent arginine, R306, does not interact with
the catalytic aspartate. c, Active site of the autoinhibited
form of IRK17. The catalytic aspartate, D1132, is bound to
Y1162. This bond is disrupted after phosphorylation of Y1162,
accompanied by phosphorylation of two other tyrosines and
induces a conformational change of the activation segment from a
closed to an open conformation25. The colour codes of the tubes
are as in Fig. 3a. d, Stereo view of a 2F[o] - F[c]
electron-density map, using phases of the final model, contoured
at 1.3 .
The electron density shown covers several active-site residues
and solvent molecules. Some titin-kinase residues are labelled.
a-c were prepared with GRASP45 and d with program O (ref. 46).
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The above figures are
reprinted
by permission from Macmillan Publishers Ltd:
Nature
(1998,
395,
863-869)
copyright 1998.
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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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G.Mancini,
C.Zazza,
M.Aschi,
and
N.Sanna
(2011).
Conformational analysis and UV/Vis spectroscopic properties of a rotaxane-based molecular machine in acetonitrile dilute solution: when simulations meet experiments.
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Phys Chem Chem Phys,
13,
2342-2349.
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M.Gautel
(2011).
The sarcomeric cytoskeleton: who picks up the strain?
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Curr Opin Cell Biol,
23,
39-46.
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T.M.Butler,
and
M.J.Siegman
(2011).
A force-activated kinase in a catch smooth muscle.
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J Muscle Res Cell Motil,
31,
349-358.
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C.D.Markert,
M.P.Meaney,
K.A.Voelker,
R.W.Grange,
H.W.Dalley,
J.K.Cann,
M.Ahmed,
B.Bishwokarma,
S.J.Walker,
S.X.Yu,
M.Brown,
M.W.Lawlor,
A.H.Beggs,
and
M.K.Childers
(2010).
Functional muscle analysis of the Tcap knockout mouse.
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Hum Mol Genet,
19,
2268-2283.
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H.Cheng,
X.Xu,
S.Zhao,
B.Liu,
M.Yu,
and
B.Fan
(2010).
Molecular cloning and expression profile analysis of porcine TCAP gene.
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Mol Biol Rep,
37,
1641-1647.
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T.Sadikot,
C.R.Hammond,
and
M.B.Ferrari
(2010).
Distinct roles for telethonin N-versus C-terminus in sarcomere assembly and maintenance.
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Dev Dyn,
239,
1124-1135.
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Y.Mabuchi,
K.Mabuchi,
W.F.Stafford,
and
Z.Grabarek
(2010).
Modular structure of smooth muscle Myosin light chain kinase: hydrodynamic modeling and functional implications.
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Biochemistry,
49,
2903-2917.
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A.Kontrogianni-Konstantopoulos,
M.A.Ackermann,
A.L.Bowman,
S.V.Yap,
and
R.J.Bloch
(2009).
Muscle giants: molecular scaffolds in sarcomerogenesis.
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Physiol Rev,
89,
1217-1267.
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E.D.Scheeff,
J.Eswaran,
G.Bunkoczi,
S.Knapp,
and
G.Manning
(2009).
Structure of the Pseudokinase VRK3 Reveals a Degraded Catalytic Site, a Highly Conserved Kinase Fold, and a Putative Regulatory Binding Site.
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Structure,
17,
128-138.
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PDB codes:
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K.Fukuda,
S.Gupta,
K.Chen,
C.Wu,
and
J.Qin
(2009).
The pseudoactive site of ILK is essential for its binding to alpha-Parvin and localization to focal adhesions.
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Mol Cell,
36,
819-830.
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PDB codes:
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K.Mihatsch,
M.Nestler,
H.P.Saluz,
A.Henke,
and
T.Munder
(2009).
Proapoptotic protein Siva binds to the muscle protein telethonin in cardiomyocytes during coxsackieviral infection.
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Cardiovasc Res,
81,
108-115.
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M.Bertz,
M.Wilmanns,
and
M.Rief
(2009).
The titin-telethonin complex is a directed, superstable molecular bond in the muscle Z-disk.
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Proc Natl Acad Sci U S A,
106,
13307.
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N.Pinotsis,
P.Abrusci,
K.Djinović-Carugo,
and
M.Wilmanns
(2009).
Terminal assembly of sarcomeric filaments by intermolecular beta-sheet formation.
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Trends Biochem Sci,
34,
33-39.
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Q.Zhang,
Y.F.Zhou,
C.Z.Zhang,
X.Zhang,
C.Lu,
and
T.A.Springer
(2009).
Structural specializations of A2, a force-sensing domain in the ultralarge vascular protein von Willebrand factor.
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Proc Natl Acad Sci U S A,
106,
9226-9231.
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PDB code:
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R.Zhang,
J.Yang,
J.Zhu,
and
X.Xu
(2009).
Depletion of zebrafish Tcap leads to muscular dystrophy via disrupting sarcomere-membrane interaction, not sarcomere assembly.
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Hum Mol Genet,
18,
4130-4140.
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A.B.Borisov,
M.O.Raeker,
and
M.W.Russell
(2008).
Developmental expression and differential cellular localization of obscurin and obscurin-associated kinase in cardiac muscle cells.
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J Cell Biochem,
103,
1621-1635.
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A.L.Bowman,
D.H.Catino,
J.C.Strong,
W.R.Randall,
A.Kontrogianni-Konstantopoulos,
and
R.J.Bloch
(2008).
The rho-guanine nucleotide exchange factor domain of obscurin regulates assembly of titin at the Z-disk through interactions with Ran binding protein 9.
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Mol Biol Cell,
19,
3782-3792.
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A.Mazzone,
P.R.Strege,
D.J.Tester,
C.E.Bernard,
G.Faulkner,
R.De Giorgio,
J.C.Makielski,
V.Stanghellini,
S.J.Gibbons,
M.J.Ackerman,
and
G.Farrugia
(2008).
A mutation in telethonin alters Nav1.5 function.
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J Biol Chem,
283,
16537-16544.
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D.N.Greene,
T.Garcia,
R.B.Sutton,
K.M.Gernert,
G.M.Benian,
and
A.F.Oberhauser
(2008).
Single-molecule force spectroscopy reveals a stepwise unfolding of Caenorhabditis elegans giant protein kinase domains.
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Biophys J,
95,
1360-1370.
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E.M.Puchner,
A.Alexandrovich,
A.L.Kho,
U.Hensen,
L.V.Schäfer,
B.Brandmeier,
F.Gräter,
H.Grubmüller,
H.E.Gaub,
and
M.Gautel
(2008).
Mechanoenzymatics of titin kinase.
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Proc Natl Acad Sci U S A,
105,
13385-13390.
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H.Qadota,
L.A.McGaha,
K.B.Mercer,
T.J.Stark,
T.M.Ferrara,
and
G.M.Benian
(2008).
A novel protein phosphatase is a binding partner for the protein kinase domains of UNC-89 (Obscurin) in Caenorhabditis elegans.
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Mol Biol Cell,
19,
2424-2432.
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L.Tskhovrebova,
and
J.Trinick
(2008).
Giant proteins: sensing tension with titin kinase.
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Curr Biol,
18,
R1141-R1142.
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N.E.Chayen,
and
E.Saridakis
(2008).
Protein crystallization: from purified protein to diffraction-quality crystal.
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Nat Methods,
5,
147-153.
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N.Fukuda,
H.L.Granzier,
S.Ishiwata,
and
S.Kurihara
(2008).
Physiological functions of the giant elastic protein titin in mammalian striated muscle.
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J Physiol Sci,
58,
151-159.
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S.R.Cunha,
and
P.J.Mohler
(2008).
Obscurin Targets Ankyrin-B and Protein Phosphatase 2A to the Cardiac M-line.
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J Biol Chem,
283,
31968-31980.
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S.Y.Boateng,
and
P.H.Goldspink
(2008).
Assembly and maintenance of the sarcomere night and day.
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Cardiovasc Res,
77,
667-675.
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B.Barton,
G.Ayer,
D.W.Maughan,
and
J.O.Vigoreaux
(2007).
Site directed mutagenesis of Drosophila flightin disrupts phosphorylation and impairs flight muscle structure and mechanics.
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J Muscle Res Cell Motil,
28,
219-230.
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E.H.Lee,
J.Hsin,
O.Mayans,
and
K.Schulten
(2007).
Secondary and tertiary structure elasticity of titin Z1Z2 and a titin chain model.
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Biophys J,
93,
1719-1735.
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H.Granzier,
and
S.Labeit
(2007).
Structure-function relations of the giant elastic protein titin in striated and smooth muscle cells.
|
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Muscle Nerve,
36,
740-755.
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K.Ojima,
Y.Ono,
N.Doi,
K.Yoshioka,
Y.Kawabata,
S.Labeit,
and
H.Sorimachi
(2007).
Myogenic stage, sarcomere length, and protease activity modulate localization of muscle-specific calpain.
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J Biol Chem,
282,
14493-14504.
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N.Danièle,
I.Richard,
and
M.Bartoli
(2007).
Ins and outs of therapy in limb girdle muscular dystrophies.
|
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Int J Biochem Cell Biol,
39,
1608-1624.
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P.J.Cavnar,
S.G.Olenych,
and
T.C.Keller
(2007).
Molecular identification and localization of cellular titin, a novel titin isoform in the fibroblast stress fiber.
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Cell Motil Cytoskeleton,
64,
418-433.
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D.Frank,
C.Kuhn,
H.A.Katus,
and
N.Frey
(2006).
The sarcomeric Z-disc: a nodal point in signalling and disease.
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J Mol Med,
84,
446-468.
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E.A.Stein,
K.Cho,
P.I.Higgs,
and
D.R.Zusman
(2006).
Two Ser/Thr protein kinases essential for efficient aggregation and spore morphogenesis in Myxococcus xanthus.
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Mol Microbiol,
60,
1414-1431.
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J.Boudeau,
D.Miranda-Saavedra,
G.J.Barton,
and
D.R.Alessi
(2006).
Emerging roles of pseudokinases.
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Trends Cell Biol,
16,
443-452.
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K.E.Davies,
and
K.J.Nowak
(2006).
Molecular mechanisms of muscular dystrophies: old and new players.
|
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Nat Rev Mol Cell Biol,
7,
762-773.
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P.Zou,
N.Pinotsis,
S.Lange,
Y.H.Song,
A.Popov,
I.Mavridis,
O.M.Mayans,
M.Gautel,
and
M.Wilmanns
(2006).
Palindromic assembly of the giant muscle protein titin in the sarcomeric Z-disk.
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Nature,
439,
229-233.
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PDB code:
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S.Lange,
E.Ehler,
and
M.Gautel
(2006).
From A to Z and back? Multicompartment proteins in the sarcomere.
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Trends Cell Biol,
16,
11-18.
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S.Weinert,
N.Bergmann,
X.Luo,
B.Erdmann,
and
M.Gotthardt
(2006).
M line-deficient titin causes cardiac lethality through impaired maturation of the sarcomere.
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J Cell Biol,
173,
559-570.
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V.Vogel
(2006).
Mechanotransduction involving multimodular proteins: converting force into biochemical signals.
|
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Annu Rev Biophys Biomol Struct,
35,
459-488.
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Y.Duan,
J.G.DeKeyser,
S.Damodaran,
and
M.L.Greaser
(2006).
Studies on titin PEVK peptides and their interaction.
|
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Arch Biochem Biophys,
454,
16-25.
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A.Fukuzawa,
S.Idowu,
and
M.Gautel
(2005).
Complete human gene structure of obscurin: implications for isoform generation by differential splicing.
|
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J Muscle Res Cell Motil,
26,
427-434.
|
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A.G.Cook,
L.N.Johnson,
and
J.M.McDonnell
(2005).
Structural characterization of Ca2+/CaM in complex with the phosphorylase kinase PhK5 peptide.
|
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FEBS J,
272,
1511-1522.
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B.N.Harris,
H.Li,
M.Terry,
and
M.B.Ferrari
(2005).
Calcium transients regulate titin organization during myofibrillogenesis.
|
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Cell Motil Cytoskeleton,
60,
129-139.
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E.D.Scheeff,
and
P.E.Bourne
(2005).
Structural evolution of the protein kinase-like superfamily.
|
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PLoS Comput Biol,
1,
e49.
|
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F.Gräter,
J.Shen,
H.Jiang,
M.Gautel,
and
H.Grubmüller
(2005).
Mechanically induced titin kinase activation studied by force-probe molecular dynamics simulations.
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Biophys J,
88,
790-804.
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H.Granzier,
Y.Wu,
L.Siegfried,
and
M.LeWinter
(2005).
Titin: physiological function and role in cardiomyopathy and failure.
|
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Heart Fail Rev,
10,
211-223.
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J.Peng,
K.Raddatz,
S.Labeit,
H.Granzier,
and
M.Gotthardt
(2005).
Muscle atrophy in titin M-line deficient mice.
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J Muscle Res Cell Motil,
26,
381-388.
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L.Tskhovrebova,
and
J.Trinick
(2005).
Muscle disease: a giant feels the strain.
|
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Nat Med,
11,
478-479.
|
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M.Marino,
D.I.Svergun,
L.Kreplak,
P.V.Konarev,
B.Maco,
D.Labeit,
and
O.Mayans
(2005).
Poly-Ig tandems from I-band titin share extended domain arrangements irrespective of the distinct features of their modular constituents.
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J Muscle Res Cell Motil,
26,
355-365.
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O.S.Rosenberg,
S.Deindl,
R.J.Sung,
A.C.Nairn,
and
J.Kuriyan
(2005).
Structure of the autoinhibited kinase domain of CaMKII and SAXS analysis of the holoenzyme.
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Cell,
123,
849-860.
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PDB code:
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S.Lange,
F.Xiang,
A.Yakovenko,
A.Vihola,
P.Hackman,
E.Rostkova,
J.Kristensen,
B.Brandmeier,
G.Franzen,
B.Hedberg,
L.G.Gunnarsson,
S.M.Hughes,
S.Marchand,
T.Sejersen,
I.Richard,
L.Edström,
E.Ehler,
B.Udd,
and
M.Gautel
(2005).
The kinase domain of titin controls muscle gene expression and protein turnover.
|
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Science,
308,
1599-1603.
|
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|
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S.Lange,
I.Agarkova,
J.C.Perriard,
and
E.Ehler
(2005).
The sarcomeric M-band during development and in disease.
|
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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
codes are
shown on the right.
|
');
}
}
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