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PDBsum entry 1a38
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Complex (signal transduction/peptide)
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PDB id
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1a38
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Contents |
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* Residue conservation analysis
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DOI no:
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J Biol Chem
273:16305-16310
(1998)
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PubMed id:
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14-3-3zeta binds a phosphorylated Raf peptide and an unphosphorylated peptide via its conserved amphipathic groove.
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C.Petosa,
S.C.Masters,
L.A.Bankston,
J.Pohl,
B.Wang,
H.Fu,
R.C.Liddington.
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ABSTRACT
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14-3-3 proteins bind a variety of molecules involved in signal transduction,
cell cycle regulation and apoptosis. 14-3-3 binds ligands such as Raf-1 kinase
and Bad by recognizing the phosphorylated consensus motif, RSXpSXP, but must
bind unphosphorylated ligands, such as glycoprotein Ib and Pseudomonas
aeruginosa exoenzyme S, via a different motif. Here we report the crystal
structures of the zeta isoform of 14-3-3 in complex with two peptide ligands: a
Raf-derived phosphopeptide (pS-Raf-259, LSQRQRSTpSTPNVHMV) and an
unphosphorylated peptide derived from phage display (R18, PHCVPRDLSWLDLEANMCLP)
that inhibits binding of exoenzyme S and Raf-1. The two peptides bind within a
conserved amphipathic groove on the surface of 14-3-3 at overlapping but
distinct sites. The phosphoserine of pS-Raf-259 engages a cluster of basic
residues (Lys49, Arg56, Arg60, and Arg127), whereas R18 binds via the
amphipathic sequence, WLDLE, with its two acidic groups coordinating the same
basic cluster. 14-3-3 is dimeric, and its two peptide-binding grooves are
arranged in an antiparallel fashion, 30 A apart. The ability of each groove to
bind different peptide motifs suggests how 14-3-3 can act in signal transduction
by inducing either homodimer or heterodimer formation in its target proteins.
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Selected figure(s)
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Figure 1.
Fig. 1. Stereodiagram of the 14-3-3 monomer
structure showing electron density for the pS-Raf-259 and R18
peptides. Helices forming the amphipathic groove are in white.
In red is an F[o] F[c] map
contoured at 2 calculated
for crystals soaked in the a) pS-Raf-259 or b) R18 peptide. The
maps are at 3.6 (A) and 3.35 Å (B) resolution using phases
calculated from the protein model before inclusion of peptide
atoms and improved by 4-fold noncrystallographic symmetry
averaging, histogram matching, and solvent flattening in DM
(25). The figure was produced with Bobscript (30) and Raster3D
(31).
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Figure 3.
Fig. 3. Amphipathicity and sequence conservation of the
peptide-binding site. A, space-filling model of 14-3-3 with
residues defining the amphipathic groove colored by side chain
type: hydrophobic (green), polar (dark gray), acidic (red), and
basic (blue). The pS-Raf-259 peptide backbone with its
phosphoserine side chain is shown in yellow. Asp or Glu
substitutions leading to reduced Raf binding3 (19) are marked
with * (strong effect) or with ± (weak effect). B, the
concave inner surface of 14-3-3 with residues invariant across
30 eukaryotic species in red (see also Table II). The R18
peptide is shown in green. None of the residues solvent-exposed
on the rear, convex surface are invariant (not shown). C,
close-up view of residues from helices 3, 5, 7, and 9 forming
the amphipathic groove. All residues exposed in the groove are
labeled except Gly53 and Gly169. The viewing orientation and
coloring scheme are as in A. Residues boxed in solid or dashed
lines correspond to those marked in A by * or ±,
respectively. D, schematic of a 14-3-3 dimer with
helices as cylinders showing bound Raf peptides with their
phosphoserine side chains. The two peptides are oriented in an
antiparallel fashion. The view is rotated by 90 ° around a
horizontal axis compared with A-C, so that the dyad axis lies
vertically in the plane of the page. The figure was produced
with Molscript (32) and Raster3D (31).
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The above figures are
reprinted
by permission from the ASBMB:
J Biol Chem
(1998,
273,
16305-16310)
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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A.Singh,
M.Ye,
O.Bucur,
S.Zhu,
M.Tanya Santos,
I.Rabinovitz,
W.Wei,
D.Gao,
W.C.Hahn,
and
R.Khosravi-Far
(2010).
Protein phosphatase 2A reactivates FOXO3a through a dynamic interplay with 14-3-3 and AKT.
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Mol Biol Cell,
21,
1140-1152.
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E.M.Ramser,
G.Wolters,
G.Dityateva,
A.Dityatev,
M.Schachner,
and
T.Tilling
(2010).
The 14-3-3ζ protein binds to the cell adhesion molecule L1, promotes L1 phosphorylation by CKII and influences L1-dependent neurite outgrowth.
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PLoS One,
5,
e13462.
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G.Messaritou,
S.Grammenoudi,
and
E.M.Skoulakis
(2010).
Dimerization is essential for 14-3-3zeta stability and function in vivo.
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J Biol Chem,
285,
1692-1700.
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L.M.Cockrell,
M.C.Puckett,
E.H.Goldman,
F.R.Khuri,
and
H.Fu
(2010).
Dual engagement of 14-3-3 proteins controls signal relay from ASK2 to the ASK1 signalosome.
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Oncogene,
29,
822-830.
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S.Rajagopalan,
R.S.Sade,
F.M.Townsley,
and
A.R.Fersht
(2010).
Mechanistic differences in the transcriptional activation of p53 by 14-3-3 isoforms.
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Nucleic Acids Res,
38,
893-906.
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Z.T.Zhang,
Y.Zhou,
Y.Li,
S.Q.Shao,
B.Y.Li,
H.Y.Shi,
and
X.B.Li
(2010).
Interactome analysis of the six cotton 14-3-3s that are preferentially expressed in fibres and involved in cell elongation.
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J Exp Bot,
61,
3331-3344.
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B.Kostelecky,
A.T.Saurin,
A.Purkiss,
P.J.Parker,
and
N.Q.McDonald
(2009).
Recognition of an intra-chain tandem 14-3-3 binding site within PKCepsilon.
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EMBO Rep,
10,
983-989.
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PDB code:
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S.S.Gangopadhyay,
E.Kengni,
S.Appel,
C.Gallant,
H.R.Kim,
P.Leavis,
J.DeGnore,
and
K.G.Morgan
(2009).
Smooth muscle archvillin is an ERK scaffolding protein.
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J Biol Chem,
284,
17607-17615.
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S.Sun,
E.W.Wong,
M.W.Li,
W.M.Lee,
and
C.Y.Cheng
(2009).
14-3-3 and its binding partners are regulators of protein-protein interactions during spermatogenesis.
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J Endocrinol,
202,
327-336.
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A.L.Paul,
K.M.Folta,
and
R.J.Ferl
(2008).
14-3-3 proteins, red light and photoperiodic flowering: A point of connection?
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Plant Signal Behav,
3,
511-515.
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C.J.Oldfield,
J.Meng,
J.Y.Yang,
M.Q.Yang,
V.N.Uversky,
and
A.K.Dunker
(2008).
Flexible nets: disorder and induced fit in the associations of p53 and 14-3-3 with their partners.
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BMC Genomics,
9,
S1.
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H.Takala,
E.Nurminen,
S.M.Nurmi,
M.Aatonen,
T.Strandin,
M.Takatalo,
T.Kiema,
C.G.Gahmberg,
J.Ylänne,
and
S.C.Fagerholm
(2008).
Beta2 integrin phosphorylation on Thr758 acts as a molecular switch to regulate 14-3-3 and filamin binding.
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Blood,
112,
1853-1862.
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PDB codes:
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J.Shankardas,
M.Senchyna,
and
S.D.Dimitrijevich
(2008).
Presence and distribution of 14-3-3 proteins in human ocular surface tissues.
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Mol Vis,
14,
2604-2615.
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M.M.Rosenberg,
F.Yang,
M.Giovanni,
J.L.Mohn,
M.K.Temburni,
and
M.H.Jacob
(2008).
Adenomatous polyposis coli plays a key role, in vivo, in coordinating assembly of the neuronal nicotinic postsynaptic complex.
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Mol Cell Neurosci,
38,
138-152.
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P.Puri,
K.Myers,
D.Kline,
and
S.Vijayaraghavan
(2008).
Proteomic analysis of bovine sperm YWHA binding partners identify proteins involved in signaling and metabolism.
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Biol Reprod,
79,
1183-1191.
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S.Rajagopalan,
A.M.Jaulent,
M.Wells,
D.B.Veprintsev,
and
A.R.Fersht
(2008).
14-3-3 activation of DNA binding of p53 by enhancing its association into tetramers.
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Nucleic Acids Res,
36,
5983-5991.
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S.Visconti,
L.Camoni,
M.Marra,
and
P.Aducci
(2008).
Role of the 14-3-3 C-terminal region in the interaction with the plasma membrane H+-ATPase.
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Plant Cell Physiol,
49,
1887-1897.
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Y.Du,
F.R.Khuri,
and
H.Fu
(2008).
A homogenous luminescent proximity assay for 14-3-3 interactions with both phosphorylated and nonphosphorylated client peptides.
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Curr Chem Genomics,
2,
40-47.
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A.Medina,
A.Ghaffari,
R.T.Kilani,
and
A.Ghahary
(2007).
The role of stratifin in fibroblast-keratinocyte interaction.
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Mol Cell Biochem,
305,
255-264.
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B.Pauly,
M.Lasi,
C.MacKintosh,
N.Morrice,
A.Imhof,
J.Regula,
S.Rudd,
C.N.David,
and
A.Böttger
(2007).
Proteomic screen in the simple metazoan Hydra identifies 14-3-3 binding proteins implicated in cellular metabolism, cytoskeletal organisation and Ca2+ signalling.
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BMC Cell Biol,
8,
31.
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C.Ottmann,
L.Yasmin,
M.Weyand,
J.L.Veesenmeyer,
M.H.Diaz,
R.H.Palmer,
M.S.Francis,
A.R.Hauser,
A.Wittinghofer,
and
B.Hallberg
(2007).
Phosphorylation-independent interaction between 14-3-3 and exoenzyme S: from structure to pathogenesis.
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EMBO J,
26,
902-913.
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PDB code:
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O.Gileadi,
S.Knapp,
W.H.Lee,
B.D.Marsden,
S.Müller,
F.H.Niesen,
K.L.Kavanagh,
L.J.Ball,
F.von Delft,
D.A.Doyle,
U.C.Oppermann,
and
M.Sundström
(2007).
The scientific impact of the Structural Genomics Consortium: a protein family and ligand-centered approach to medically-relevant human proteins.
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J Struct Funct Genomics,
8,
107-119.
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P.Luhn,
H.Wang,
A.I.Marcus,
and
H.Fu
(2007).
Identification of FAKTS as a novel 14-3-3-associated nuclear protein.
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Proteins,
67,
479-489.
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S.Dong,
S.Kang,
T.L.Gu,
S.Kardar,
H.Fu,
S.Lonial,
H.J.Khoury,
F.Khuri,
and
J.Chen
(2007).
14-3-3 Integrates prosurvival signals mediated by the AKT and MAPK pathways in ZNF198-FGFR1-transformed hematopoietic cells.
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Blood,
110,
360-369.
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W.Yahyaoui,
M.Callejo,
G.B.Price,
and
M.Zannis-Hadjopoulos
(2007).
Deletion of the cruciform binding domain in CBP/14-3-3 displays reduced origin binding and initiation of DNA replication in budding yeast.
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BMC Mol Biol,
8,
27.
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A.Aitken
(2006).
14-3-3 proteins: a historic overview.
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Semin Cancer Biol,
16,
162-172.
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A.K.Gardino,
S.J.Smerdon,
and
M.B.Yaffe
(2006).
Structural determinants of 14-3-3 binding specificities and regulation of subcellular localization of 14-3-3-ligand complexes: a comparison of the X-ray crystal structures of all human 14-3-3 isoforms.
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Semin Cancer Biol,
16,
173-182.
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D.M.Bustos,
and
A.A.Iglesias
(2006).
Intrinsic disorder is a key characteristic in partners that bind 14-3-3 proteins.
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Proteins,
63,
35-42.
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G.W.Porter,
F.R.Khuri,
and
H.Fu
(2006).
Dynamic 14-3-3/client protein interactions integrate survival and apoptotic pathways.
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Semin Cancer Biol,
16,
193-202.
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L.Yasmin,
A.L.Jansson,
T.Panahandeh,
R.H.Palmer,
M.S.Francis,
and
B.Hallberg
(2006).
Delineation of exoenzyme S residues that mediate the interaction with 14-3-3 and its biological activity.
|
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FEBS J,
273,
638-646.
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X.Yang,
W.H.Lee,
F.Sobott,
E.Papagrigoriou,
C.V.Robinson,
J.G.Grossmann,
M.Sundström,
D.A.Doyle,
and
J.M.Elkins
(2006).
Structural basis for protein-protein interactions in the 14-3-3 protein family.
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Proc Natl Acad Sci U S A,
103,
17237-17242.
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PDB codes:
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A.L.Paul,
P.C.Sehnke,
R.J.Ferl,
and
R.J.Ferl
(2005).
Isoform-specific subcellular localization among 14-3-3 proteins in Arabidopsis seems to be driven by client interactions.
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Mol Biol Cell,
16,
1735-1743.
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L.G.Rodriguez,
and
J.L.Guan
(2005).
14-3-3 regulation of cell spreading and migration requires a functional amphipathic groove.
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J Cell Physiol,
202,
285-294.
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M.P.Sinnige,
I.Roobeek,
T.D.Bunney,
A.J.Visser,
J.N.Mol,
and
A.H.de Boer
(2005).
Single amino acid variation in barley 14-3-3 proteins leads to functional isoform specificity in the regulation of nitrate reductase.
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Plant J,
44,
1001-1009.
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N.Macdonald,
J.P.Welburn,
M.E.Noble,
A.Nguyen,
M.B.Yaffe,
D.Clynes,
J.G.Moggs,
G.Orphanides,
S.Thomson,
J.W.Edmunds,
A.L.Clayton,
J.A.Endicott,
and
L.C.Mahadevan
(2005).
Molecular basis for the recognition of phosphorylated and phosphoacetylated histone h3 by 14-3-3.
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Mol Cell,
20,
199-211.
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PDB codes:
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W.Liao,
S.Wang,
C.Han,
and
Y.Zhang
(2005).
14-3-3 proteins regulate glycogen synthase 3beta phosphorylation and inhibit cardiomyocyte hypertrophy.
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FEBS J,
272,
1845-1854.
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M.B.Yaffe,
and
S.J.Smerdon
(2004).
The use of in vitro peptide-library screens in the analysis of phosphoserine/threonine-binding domain structure and function.
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Annu Rev Biophys Biomol Struct,
33,
225-244.
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R.J.Ferl
(2004).
14-3-3 proteins: regulation of signal-induced events.
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Physiol Plant,
120,
173-178.
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D.C.Klein,
S.Ganguly,
S.L.Coon,
Q.Shi,
P.Gaildrat,
F.Morin,
J.L.Weller,
T.Obsil,
A.Hickman,
and
F.Dyda
(2003).
14-3-3 proteins in pineal photoneuroendocrine transduction: how many roles?
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J Neuroendocrinol,
15,
370-377.
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J.G.Dai,
and
K.Murakami
(2003).
Constitutively and autonomously active protein kinase C associated with 14-3-3 zeta in the rodent brain.
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J Neurochem,
84,
23-34.
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M.S.Chen,
C.E.Ryan,
and
H.Piwnica-Worms
(2003).
Chk1 kinase negatively regulates mitotic function of Cdc25A phosphatase through 14-3-3 binding.
|
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Mol Cell Biol,
23,
7488-7497.
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M.Würtele,
C.Jelich-Ottmann,
A.Wittinghofer,
and
C.Oecking
(2003).
Structural view of a fungal toxin acting on a 14-3-3 regulatory complex.
|
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EMBO J,
22,
987-994.
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PDB codes:
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Y.H.Shen,
J.Godlewski,
A.Bronisz,
J.Zhu,
M.J.Comb,
J.Avruch,
and
G.Tzivion
(2003).
Significance of 14-3-3 self-dimerization for phosphorylation-dependent target binding.
|
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Mol Biol Cell,
14,
4721-4733.
|
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A.B.Truong,
S.C.Masters,
H.Yang,
and
H.Fu
(2002).
Role of the 14-3-3 C-terminal loop in ligand interaction.
|
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Proteins,
49,
321-325.
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A.Brunet,
F.Kanai,
J.Stehn,
J.Xu,
D.Sarbassova,
J.V.Frangioni,
S.N.Dalal,
J.A.DeCaprio,
M.E.Greenberg,
and
M.B.Yaffe
(2002).
14-3-3 transits to the nucleus and participates in dynamic nucleocytoplasmic transport.
|
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J Cell Biol,
156,
817-828.
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F.Ozoe,
R.Kurokawa,
Y.Kobayashi,
H.T.Jeong,
K.Tanaka,
K.Sen,
T.Nakagawa,
H.Matsuda,
and
M.Kawamukai
(2002).
The 14-3-3 proteins Rad24 and Rad25 negatively regulate Byr2 by affecting its localization in Schizosaccharomyces pombe.
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Mol Cell Biol,
22,
7105-7119.
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J.Yan,
J.Wang,
and
H.Zhang
(2002).
An ankyrin repeat-containing protein plays a role in both disease resistance and antioxidation metabolism.
|
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Plant J,
29,
193-202.
|
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M.L.Henriksson,
M.S.Francis,
A.Peden,
M.Aili,
K.Stefansson,
R.Palmer,
A.Aitken,
and
B.Hallberg
(2002).
A nonphosphorylated 14-3-3 binding motif on exoenzyme S that is functional in vivo.
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Eur J Biochem,
269,
4921-4929.
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R.J.Ferl,
M.S.Manak,
and
M.F.Reyes
(2002).
The 14-3-3s.
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Genome Biol,
3,
REVIEWS3010.
|
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T.Ichimura,
A.Wakamiya-Tsuruta,
C.Itagaki,
M.Taoka,
T.Hayano,
T.Natsume,
and
T.Isobe
(2002).
Phosphorylation-dependent interaction of kinesin light chain 2 and the 14-3-3 protein.
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Biochemistry,
41,
5566-5572.
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Y.Light,
H.Paterson,
and
R.Marais
(2002).
14-3-3 antagonizes Ras-mediated Raf-1 recruitment to the plasma membrane to maintain signaling fidelity.
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| |
Mol Cell Biol,
22,
4984-4996.
|
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H.Yang,
S.C.Masters,
H.Wang,
and
H.Fu
(2001).
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The most recent references are shown first.
Citation data come partly from CiteXplore and partly
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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
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}
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