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1 s an intracellular Golgi membrane-associated small heat shock protein.
2 ontaining Arabidopsis (Arabidopsis thaliana) small heat shock protein.
3 ulin, and beta-catenin, were identified in a small heat shock protein.
4 nderlying the cytoprotective effects of this small heat shock protein.
5 promoter of ibpA, which encodes a universal small heat-shock protein.
6 r as cochaperones of Hsp90 or as independent small heat shock proteins.
7 ld-type levels of heat shock protein 101 and small heat shock proteins.
8 n genes, which encode proteins homologous to small heat shock proteins.
9 ppears to be a novel member of the family of small heat shock proteins.
10 5) encoding a cytoplasmic antigen related to small heat shock proteins.
11 amic interaction between the major mammalian small heat shock proteins.
12 tallin and HSP27 are mammalian intracellular small heat shock proteins.
13 smic protein inclusions containing GFAP, and small heat shock proteins.
14 controversial role of ATP in the function of small heat-shock proteins.
15 in the process of recognition and binding by small heat-shock proteins.
16 te filament protein GFAP in association with small heat-shock proteins.
17 inhibitor-1 of protein phosphatase 1 and the small heat shock protein 20, which affect the overall SE
18 nterior IX (posterior zone; PZ), whereas the small heat shock protein 25 (HSP25) is expressed in stri
21 Here we describe how the expression of the small heat shock protein 27 (HSP27) is correlated with n
22 aling events revealed phosphorylation of the small heat shock protein 27 (HSP27) that was abolished b
24 erone function that proposes the coupling of small heat shock protein activation to the substrate fol
25 re we demonstrate that the expression of the small heat shock protein alpha B-crystallin is selective
28 riptome revealed a striking induction of the small heat shock protein alpha-basic-crystallin (alphaB-
31 roach to characterize the interaction of the small heat-shock protein alpha-Crystallin with two subst
32 ause MKK6 increases levels of the protective small heat shock protein, alpha B-crystallin (alpha BC),
44 lococcus aureus-induced endophthalmitis, the small heat shock protein alphaB-crystallin is upregulate
46 e anti-stress properties established for the small heat-shock protein alphaB-crystallin, perhaps in r
51 an agonist-dependent relationship between a small heat shock protein and beta-arrestin to form a pre
53 factor to activate transcription of both the small heat shock protein and the large heat shock protei
54 heat shock proteins include ATP-independent small heat shock proteins and the larger ATP-dependent p
55 ation of many antiapoptotic genes, including small heat shock proteins and transcription factors.
56 tibility-1 on wheat chromosome 3AS encodes a small heat-shock protein and is a major susceptibility g
57 alphaB-crystallin, a ubiquitously expressed small heat shock protein (and a crystallin) in the ocula
58 Rosenthal fibers (RFs), which contain GFAP, small heat shock proteins, and other undefined component
59 tain glial fibrillary acidic protein (GFAP), small heat shock proteins, and ubiquitinated proteins ar
60 of these mice are hypertrophic, up-regulate small heat-shock proteins, and contain inclusion bodies
61 se transcription-PCR analysis shows that the small heat shock proteins are also transcriptionally ind
62 sults show that the highly conserved E. coli small heat shock proteins are dispensable and that their
66 ast to the existing paradigm that classifies small heat-shock proteins as ATP-independent chaperones.
67 in the alpha-crystallin domain of mammalian small heat-shock proteins assemble a basic building bloc
69 ons in neurofilament light (NFL) subunit and small heat-shock protein B1 (HSPB1) cause autosomal-domi
70 issense mutation in the gene encoding 27-kDa small heat-shock protein B1 (HSPB1, also called HSP27) t
71 e therapeutic activity of alphaB crystallin, small heat shock protein B5 (HspB5), was shared with oth
72 mers are commonly observed in experiments on small heat-shock proteins, but their connection to the b
73 ion of metallothioneins and alpha-crystallin/small heat shock proteins by different metals indicates
74 TP hydrolysis and substrate binding, and the small heat shock protein can suppress protein aggregatio
75 ation, both at the RNA and protein level, of small heat shock proteins, chaperones, proteases, and pr
77 determine the roles of chloroplast-localized small heat shock proteins (CP-sHSPs) in heat tolerance.
79 ring with the chaperone activity of a barley small heat shock protein essential for defense and stres
86 In contrast, neither the closely related small heat shock protein family member Hsp27 nor Hsp70 i
87 nserved arginine in the ACD of several human small heat shock protein family members causes many comm
90 ny proteins including Hsp27, a member of the small heat shock protein family that has cytoprotective
91 hat human alphaB-crystallin, a member of the small heat shock protein family, actively participates i
92 Mutations in HSPB1 and HSPB8, members of the small heat shock protein family, have recently been show
94 Hsp12 (heat shock protein 12) belongs to the small heat shock protein family, partially characterized
98 ession of alphaB-crystallin, a member of the small heat-shock protein family, blocks activation of RA
99 ence that alphaB-crystallin, a member of the small heat-shock protein family, suppresses thermal unfo
103 , we have determined crystal structures of a small heat shock protein from Salmonella typhimurium in
104 on conformation and dynamics of the 16.9 kDa small heat shock protein from wheat have been studied us
105 Here we report the crystal structure of a small heat-shock protein from Methanococcus jannaschii,
108 ne world, but now the crystal structure of a small heat shock protein has been solved and mutation of
109 We investigated whether this archetypical small heat-shock protein has the ability to interact wit
112 agues present data supporting a role for the small heat shock protein (HSP) 27 in keratinocyte termin
115 phaB-crystallin (CryAB) is the most abundant small heat shock protein (HSP) constitutively expressed
116 titutive neuronal expression of HSP-16.48, a small heat shock protein (HSP) homolog of human alpha-cr
119 P70 family, three alpha B-crystallin-related small heat shock proteins (HSP-16s), and a putative orth
120 In breast cancer, overexpression of the small heat shock protein, HSP-27, is associated with inc
122 stingly, both CSEPs interact with the barley small heat shock proteins, Hsp16.9 and Hsp17.5, in a yea
124 ulates dosage-sensitive proteins such as the small heat shock protein Hsp20, which exists in a dodeca
129 eron with two downstream genes that encode a small heat shock protein, Hsp20, and cdc48, an AAA+ ATPa
130 r, little is known about the role of another small heat-shock protein, Hsp20, which regulates activit
132 to resolve the structures of two forms of a small heat shock protein (Hsp26) that vary slightly in d
135 ation in all adult axotomized neurons of the small heat shock protein Hsp27 and the failure of such i
138 iously identified high concentrations of the small heat shock protein hsp27 within podocytes as well
140 ha B-crystallin, but not the closely related small heat shock protein Hsp27, renders C2C12 myoblasts
142 ones also showed increased expression of the small heat shock protein HSP27; and reporter assays reve
143 promotes the interaction between p53 and the small heat shock proteins HSP27 (also known as HSPB1) an
145 aternary structure and dynamics of the human small heat-shock protein Hsp27 are linked to its molecul
150 ewly synthesized Btn2 can associate with the small heat shock protein Hsp42 to promote the sorting of
151 belonging to four major insect Hsp families (small heat-shock proteins, Hsp60, Hsp70, and Hsp90) in S
153 Our data suggest that down-regulation of small heat shock protein HSPB1 and disintegration of neu
158 AG3(Ile81) displayed improved binding to the small heat shock protein (HspB8) in ischemic skeletal mu
160 we show that in Mycobacterium smegmatis, the small heat shock protein HspX plays a critical role in t
161 f the stress-response regulon, including the small heat shock proteins IbpA and IbpB that protect E c
162 r genetics evidence for a critical role of a small heat shock protein in cell traction and motility.
163 unsuspected and critical role for a specific small heat shock protein in directly modulating actin th
165 This results in the selective induction of small heat shock proteins in adulthood, thereby protecti
167 binding capacity has been observed in other small heat shock proteins including lens alpha-crystalli
168 were identified: (i) fragmentation caused by small heat shock proteins, including alpha B-crystallin,
169 The specificity of the immunoreactivity to small heat shock proteins, including alpha-crystallins a
170 ular weight in patients with glaucoma was to small heat shock proteins, including alpha-crystallins a
175 Upregulation of alphaB-crystallin (CryAB), a small heat shock protein, is associated with a variety o
176 c reticulum (ER) chaperone, and HSP26.5-P, a small heat shock protein, is attenuated in the bZIP28 nu
177 aB-crystallin is a developmentally regulated small heat shock protein known for its binding to a vari
179 rs of circulating antibodies against retinal small heat shock proteins may have pathogenic significan
180 n chaperone activity and complex assembly of small heat shock proteins need to be characterized to un
185 data are consistent with the hypothesis that small heat shock proteins recognize ENaC subunits at ER
190 Eye lens alpha-crystallin is a member of the small heat shock protein (sHSP) family and forms large m
191 HspB5 is a well-characterized member of the small heat shock protein (sHsp) family that reduces muta
196 ulus alba) through overexpression of a major small heat shock protein (sHSP) with convenient features
198 have compared the tissue specificity of the small heat shock protein (shsp)/alphaB-crystallin promot
203 to the core "alpha-crystallin" domain of the small heat-shock protein (sHsp) and molecular chaperone,
204 her develop the mechanistic understanding of small heat-shock protein (sHSP) chaperone activity, we i
208 sage corresponding to HSP26, which encodes a small heat-shock protein (sHsp) in yeast was up-regulate
210 We report that two members of the family of small heat-shock proteins (sHsp) (alpha-crystallin and S
211 lpha-crystallin is a member of the family of small heat-shock proteins (sHSP) and is composed of two
213 uppressors restored solubility of aggregated small heat shock proteins (sHsps) after heat stress, rev
215 e chaperone activity and subunit dynamics of small heat shock proteins (sHSPs) and establishes a work
245 rn more about the function and regulation of small heat shock proteins (sHSPs) during seed developmen
248 tailed understanding of the evolution of the small heat shock proteins (sHSPs) in plants, we have exa
251 nder conditions promoting protein unfolding, small heat shock proteins (sHsps) prevent the irreversib
254 Oligomerization is an essential property of small heat shock proteins (sHSPs) that appears to regula
256 nant protein in the lens, is a member of the small heat shock proteins (sHSPs) which are a ubiquitous
261 HSP 16.3 displays several characteristics of small heat shock proteins (sHsps): its expression is inc
262 ne families Hsp70, Hsp104, Hsp90, Hsp60, and small heat-shock proteins (sHsps) apparently act as unfo
273 In vivo, molecular chaperones, such as the small heat-shock proteins (sHsps), normally act to preve
275 ing rat lens alphaA is a membrane-associated small heat shock protein similar to alphaB but with rema
276 ress-activated kinase that can phosphorylate small heat shock protein, suggesting a potential role fo
279 hsp20 appears to encode a new member of the small heat shock protein superfamily, DR1314 is predicte
281 eterminants of structure and function in the small heat-shock protein superfamily, was determined in
284 ons of passive molecular chaperones, such as small heat-shock proteins, suppress thermodynamic instab
285 e to the study of the 200-kDa complex of the small heat shock protein TaHSP16.9, revealing both its d
287 our knowledge, the first evidence of a plant small heat shock protein that has both developmental and
289 eased the expression of alphaB-crystallin, a small heat shock protein that is enriched in astrocytes
292 e molecular chaperone alphaB-crystallin is a small heat-shock protein that is upregulated in response
293 in domain conserved in nearly all identified small heat-shock proteins that act as molecular chaperon
294 heat shock proteins proposes that ATP causes small heat shock proteins to release substrates, which a
295 ha-crystallin domain, typically conserved in small heat shock proteins, was found in Mx Hsp16.6.
296 in human alphaB crystallin, the archetype of small heat-shock proteins, was identified and characteri
297 The direct effects of antibodies specific to small heat shock proteins were then studied in isolated
298 of specific genes, including genes encoding small heat-shock proteins, which in turn promote longevi
300 pletion of cytokinesis, suggesting that this small heat shock protein, with its chaperone-like activi