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1 ession of the uspA gene encoding a universal stress protein.
2 doxin is a ubiquitous redox control and cell stress protein.
3 ng functional conservation of this important stress protein.
4 presentative of a third and unique family of stress proteins.
5 ins including circulatory, cytoskeletal, and stress proteins.
6 stresses by producing a large set of general stress proteins.
7 half, a hallmark of the superfamily of small stress proteins.
8 ially enhanced accumulation of two oxidative stress proteins.
9 irect the synthesis of more than 100 general stress proteins.
10 ppaBalpha may be considered to be one of the stress proteins.
11 species and increased abundance of oxidative stress proteins.
12 induced the synthesis of the hsp72 and hsp90 stress proteins.
13 e inosine shows reduced expression of folate stress proteins.
14 gest that Ty3 VLPs are destroyed by cellular stress proteins.
15 ons corresponding to in vivo induction of ER stress proteins.
16 of phase II defence enzymes and antioxidant stress proteins.
17 pB intergenic region, encoding two universal stress proteins.
18 r annotated with homologs encoding oxidative stress proteins.
19 itochondrial proteins and an upregulation of stress proteins.
20 nction and is known to occur in mechanically stressed proteins.
21 mmediate early response protein IEX-1, small stress protein 1 (HSPB8), and tumor necrosis factor-asso
22 otein phosphatase and Microtubule-Associated Stress Protein 1 (MASP1) differed in their stoichiometry
26 ased on the Haemophilus influenzae universal stress protein (1JMV), highly similar to E. coli UspA, w
27 f transgenic mice in which the heat shock or stress protein 70 is increased, there is a marked tolera
30 teins with similarity to the USPA (universal stress protein A of Escherichia coli) domain of bacteria
31 ng for ethanolamine utilization, a universal stress protein, a ferritin-like protein, and a phosphotr
32 o decreased heat-induced radical generation, stress protein accumulation, and cellular injury in the
33 a FAD-dependent, two-domain multifunctional stress protein acting as a Phase II enzyme, activating c
35 roteins is a popular approach to follow post stress protein aggregation, inclusion formation and disa
36 and the drug was also found to induce key ER stress proteins, albeit in a manner dissimilar to, and a
38 tor homologue-HBZ17); and (5) genes encoding stress proteins (alphaB-crystallin and mu-crystallin).
39 hypothesis invoking RpoS and UspA (universal stress protein, also significantly elevated in minimal g
40 knockdown of Herp (Homocysteine-inducible ER stress protein), an ER stress-inducible protein with an
41 the chaperoning of antigenic peptide by the stress protein and (b) the binding of the stress protein
44 -regulated protein 170 (Grp170), the largest stress protein and molecular chaperone, is highly effici
45 g of the key interaction between the sigma38 stress protein and the beta-flap of the bacterial core R
46 nce of an association between levels of this stress protein and the proinflammatory cytokine, TNFalph
48 Viral infection can stimulate synthesis of stress proteins and particular associations of viral and
49 iber is wide enough to accommodate oxidative stress proteins and RNA polymerase subunits identified b
51 ity induces the expression of a novel set of stress proteins and triggers the general stress response
52 5 h later, includes the induction of various stress proteins and ubiquitin, which are important in pr
53 amycin, thapsigargin, or A23187 expressed ER stress proteins and were resistant to subsequent H2O2-in
57 ted expression of endoplasmic reticulum (ER) stress proteins, and reduced unfolded protein response a
59 ependent classes of binding sites for LRP-2, stressed proteins, and unstressed ligands, respectively,
60 dehydrogenase, a glycolytic enzyme; HSP72, a stress protein; and glutamine synthetase, an excitotoxic
61 proteins, carbonic anhydrase, and oxidative stress proteins; and functional groups involved in prote
63 s and loss-of-function mutations of a key ER stress protein are associated with disruption of membran
64 superfamily of mammalian small heat shock or stress proteins are abundant in muscles where they play
71 ly, and (ii) the binding sites for LRP-2 and stressed proteins are likely to be in parts of the molec
74 ovokes increased expression of 27- and 70-kD stress proteins as well as manganese superoxide dismutas
75 sion of different endoplasmic reticulum (ER) stress proteins associated with MPTP- and PD-related neu
76 03720 (similar to Escherichia coli universal stress protein); At3g54870 (armadillo-repeat containing
77 intake; and physiological influences such as stress, protein balance, energetics, and metabolism.
81 the excess buildup of acetyl-CoA upregulates stress proteins but excess formate depletes acetyl-CoA a
83 6 and greater increases in expression of ER stress proteins C/EBP homologous protein and spliced XBP
84 e stress proteins, and universally conserved stress proteins can be regarded as the minimal stress pr
86 Several studies have confirmed that certain stress proteins can function as potent vaccines against
87 t demonstrates that Gadd45, a p53-responsive stress protein, can facilitate topoisomerase relaxing an
89 binds to a wide variety of partly unfolded, stressed proteins.Clusterin also binds to many different
92 nducible members of the heat shock family of stress proteins correlates with increased cellular prote
96 colysis, translational inhibition, oxidative stress, protein degradation, and amino acid catabolism.
97 after hypoglycemia, only one of 15 oxidative stress proteins differed and this was not seen in contro
99 egin a molecular genetic analysis of a major stress protein, DnaK/Hsp70, to begin to understand how s
101 gated the early expression of cytoprotective stress proteins during ischemia-reperfusion induced by P
102 hock proteins) and mitochondrial adaptive or stress proteins (e.g. manganese superoxide dismutase, mi
103 th tumor protein Ags (e.g., gp100) and large stress proteins (e.g., hsp110 and grp170) with exception
104 s well as laboratory progress on the role of stress proteins, estrogen and a few other potential adju
105 eptide-related sequence A and B (MICA/B) are stress proteins expressed by cancer cells, and antibody-
106 e vaccine targets the MICA and MICB (MICA/B) stress proteins expressed by many human cancers as a res
107 Associations between microbial virulence and stress protein expression have been identified in other
109 ly related cellular processes of response to stress, protein folding, and ubiquitin-dependent protein
110 f cellular pathways that include response to stress, protein folding, microtubule stability, and cell
116 ependent increase in expression of all major stress protein genes, including groES, dnaKJ, hsp18, and
118 creased respiration, and increased oxidative stress proteins, glutathione, and reactive oxygen specie
123 Prior ER stress induces expression of the ER stress proteins Grp78, Grp94, and calreticulin and rende
124 that overexpress Mr 78,000 glucose-regulated stress protein (GRP78) are resistant to topoisomerase II
126 rly, the heterologous expression of two cold-stress proteins had no profound influence on stress tole
132 tly, heat shock proteins (also known as heat stress proteins) have mostly been regarded as intracellu
137 studies of two long-recognized but unstudied stress proteins, heat shock protein (hsp) 110 and glucos
138 ry transferrin receptor, integrin beta7, the stress protein heme oxygenase and the lymphocyte-specifi
139 nstrate that selective overexpression of the stress protein heme oxygenase-1 (HO-1) in astrocytes of
149 tochemical staining for the non-constitutive stress protein HSP-72 or neuronal death by acid fuchsin
150 of stress; (iii) induction of heat shock or stress protein (HSP)70 by heat stress was defective in a
151 There is evidence that microbial heat shock (stress) proteins (Hsp) are immunodominant antigens of ma
153 ynthesis of numerous proteins, including the stress proteins Hsp60 (GroEL homolog) and Hsp70 (DnaK ho
155 red without expression of the inducible heat stress protein, hsp70, as detected by immunocytochemistr
158 chaperones such as the heat shock family of stress proteins (HSPs) actively participate in an array
160 activity of alphaB crystallin, an important stress protein in humans, is regulated by physiological
161 t elevated levels of serum antibody to Hsp90 stress protein in individuals colonized with this microo
162 ese observations suggest a new role for this stress protein in protecting the plastid during the dism
163 cts overexpress significant amounts of these stress proteins in both rat neonatal cardiomyocytes and
164 d cell death and investigated the role of ER stress proteins in Ca2+ regulation and cytoprotection af
167 e initiated an investigation of the roles of stress proteins in eukaryotic viral life cycles using as
168 nity, thus bridging this ancient function of stress proteins in prokaryotes to their ability to elici
169 disease, it would appear that the role of ER stress proteins in protection from oxidant damage warran
170 as regulatory elements for the expression of stress proteins in the complex stress response network o
171 DHNs, and presumably somewhat similar plant stress proteins in the late embryogenesis abundant and c
172 e observations confirm the role of mammalian stress proteins in the recognition of abnormal proteins
173 in the ER does not increase expression of ER stress proteins in TM cells (P > 0.05 for all variants t
177 creasing evidence for the roles of oxidative stress proteins including superoxide dismutase enzymes i
179 a transcriptional inducer of genes encoding stress proteins, including those belonging to the heat s
181 structurally and functionally related small stress proteins induced by a variety of insults, includi
183 ssion in glial cells, that IkappaB-beta is a stress protein inducible by hyperthermia or proteasome i
184 pase activity; and (v) more activation of ER stress proteins inositol-requiring enzyme 1 and activati
185 h was accompanied by inhibition of oxidative stress, protein insolubilization, and caspase activity i
186 st that molecular chaperoning is involved in stress protein interactions with APCs, antigen binding,
187 In plants, FDH is regarded as a universal stress protein involved in responses to various abiotic
188 ng whether increased expression of these two stress proteins is able to protect myogenic cells agains
189 ce the signal for the up-regulation of these stress proteins is believed to be the accumulation of mi
190 ress responses, in which the entire array of stress proteins is induced, no increases in HSP40 and HS
191 show that the unfolding of the mechanically stressed protein is nonexponential due to static disorde
192 l a/b/d-binding proteins, including the iron-stress protein IsiA and other paralogous Chl-binding pro
195 re blocked by specific inhibitors of oxidant stress, protein kinase C, ERK1/2, and p38 mitogen-activa
197 on of multiple signaling pathways, including stress protein kinases as well as certain caspases.
198 ated DCs, was associated with a reduction of stress protein kinases, and attenuated lipopolysaccharid
202 lting in the induction of a collection of ER stress proteins, many of which are protective and functi
207 ed gene ontology terms including Response to Stress, Protein Metabolic Process, Protein Folding, Regu
208 -inflammatory, and anti-apoptotic microsomal stress protein, migrates to the nucleus in a truncated a
210 ex-dependent co-morbidities, such as chronic stress, protein misfolding, traumatic brain injury or ot
212 tively, these data demonstrate that Turandot stress proteins mitigate AMP cytotoxicity to host tissue
214 ion of lac operator (LacO) array replication stress protein network identification (BLOCK-ID) in huma
218 B-stimulating "danger" signal into the large stress protein or chaperone Grp170 (HYOU1/ORP150) that w
219 ively mild insults through the expression of stress proteins or chaperones such as glucose-regulated
221 aginyl endopeptidase family functioning as a stress protein, overexpressed by TAMs, provides an ideal
224 -months (n=10), changes in mitochondrial and stress proteins persisted whereas cytoskeletal proteins
227 ata support a model in which induction of ER stress proteins prevents disturbances of intracellular C
228 nificantly increased expression of CX3CL1, a stress protein produced by the injured enterocyte, NOD2
230 urrent progress in identifying mechanisms of stress protein protection from ischemia, in which new me
231 uating several examples, including thermally stressed proteins, proteins at different concentrations,
232 s were compromised for de novo folding, post-stress protein refolding, and in regulated degradation o
233 and metabolic pathway genes, as well as heat stress proteins, remained altered even though pollen cou
234 Herp, an ubiquitin-like domain containing ER stress protein, renders PC12 and MN9D cells vulnerable t
236 icantly decreased by prior activation of the stress protein response with geldanamycin or pyrrolidine
241 f tyrosine phosphorylation of GRP-75-related stress protein(s) by alpha-thrombin and suggests that th
242 as relevant peptides from apoptotic and cell-stress proteins second mitochondria-derived activator of
244 hus, Osp94 is a new member of the hsp110/SSE stress protein subfamily and likely acts as a molecular
246 nducible transcription factors 1alpha and 2, stress proteins such as heat shock protein 27, and vascu
249 together with the appearance of a universal stress protein suggested that the viability of these cel
251 leukin-10, in turn, induced heme oxygenase-1 stress protein synthesis via an autocrine mechanism.
252 ration, UV resistance, oxidative stress, and stress-protein synthesis relative to the soil microbiome
255 results support the hypothesis that Ub is a stress protein that plays an important role in protectin
256 ck proteins (sHSPs) are virtually ubiquitous stress proteins that are also found in many normal tissu
257 s controls the synthesis of over 100 general stress proteins that are induced by growth-limiting cond
258 ed eye lens alpha-crystallins are ubiquitous stress proteins that exhibit ATP-independent molecular c
259 ous family of low molecular mass (15-30 kDa) stress proteins that have been found in all organisms.
260 folate stress proteins include the universal stress protein, the ferric uptake regulatory repressor,
261 he stress protein and (b) the binding of the stress protein to receptor(s) on antigen-presenting cell
263 Li et al. now identify the pseudokinase stress protein TRIB3 as an important factor in APL disea
264 mitant ablation of the upregulated oxidative stress protein TXNIP substantially negated the effects o
267 ed that the high-level induction of the PspA stress protein under YidC depletion conditions is roughl
268 ses (CHT) and beta-1,3-glucanases (GLU), are stress proteins up-regulated as response to extrinsic en
269 in was identified that contained a Universal stress protein (Usp) domain present in bacteria, protozo
270 ases (HK) of this system contain a universal stress protein (USP) domain which binds to the second me
271 y techniques, we identify specific universal stress proteins (USP) as abundantly expressed cAMP-bindi
272 e of an acidic isoform of both the universal stress protein UspA and carbon starvation protein Csp15,
273 that includes the Escherichia coli universal stress protein UspA, for the MADS-box transcription regu
277 s for CAP160 and CAP85, another spinach cold-stress protein, were introduced into tobacco (Nicotiana
279 Furthermore, mRNAs encoding key soluble stress proteins (XBP-1 and ATF-4) were translated primar