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1 HSP cases maintained the ability to walk independently f
2 HSP genes are integral to this program, however, many ar
3 HSP is linked to mutations in several loci known collect
4 HSP is mediated in part by tumor necrosis factor alpha (
5 HSP targeted AHGDM and DOC conjugates demonstrated activ
6 HSP targeted AHGDM and DOC conjugates demonstrated syner
7 HSP targeted DOC conjugates exhibited high potency again
9 MA), type I collagen, heat shock protein-47 (HSP-47), fibronectin (FN), ED-A-FN, and periostin and ac
11 ced the expression of heat-shock protein 70 (HSP-70) and heme oxygenase 1 (HO-1) and promoted cell su
13 ulin, heat shock proteins 70 and 90 (HSP-70; HSP-90), and the carbamoyl phosphate synthetase 2/aspart
14 amma-tubulin, heat shock proteins 70 and 90 (HSP-70; HSP-90), and the carbamoyl phosphate synthetase
15 With similarly striking kinetics, activated HSP genes, both chromosomally linked and unlinked, coale
20 ticipates in a network of interactions among HSP proteins involved in ER shaping, and further support
27 cium, disrupts interactions between HER2 and HSP-90, inhibits HER2 signaling, and results in internal
29 y of the pre-initiation complexes on LSP and HSP brings these transcription units in close proximity,
30 pitation, immunofluorescence microscopy, and HSP knockout using small hairpin RNA and inhibitors (apo
33 mmatory effect of prozumab, a humanized anti-HSP mAb in murine inflammatory arthritis and colitis, an
37 immune responses, the peptides chaperoned by HSPs or alpha(2)M are cross-presented on MHC molecules t
38 highly conserved stress response mediated by HSPs could underlie susceptibility to metabolic disease
46 damage in patients with pure and complicated HSP suggests that the "primary" corticospinal tract invo
52 elicited by spastin proteins with different HSP mutations, independent of microtubule-binding or sev
53 y expands the genetics of autosomal dominant HSP and is the first, to our knowledge, to link mutation
57 y, curcumin reduced soluble Tau and elevated HSPs involved in Tau clearance, showing that even after
58 repair of damage (e.g., antioxidant enzymes, HSPs), were uniquely more abundant in response to increa
63 en suggested to be the requisite subunit for HSP-induced AMPAR insertion and acute treatment with sig
65 -43 can be reduced by the activation of HSF1/HSP pathways presents an exciting opportunity for the de
66 stimulatory action of ethanol and identifies HSP-16.48 and HSF-1 as novel regulators of this pathway.
68 SP expression levels could negatively impact HSP chaperone capacity or their participation in the cel
69 The identification of a molecular deficit in HSP in Mecp2 KO neurons provides potentially novel targe
71 on is thought to be a predominant feature in HSP, the role of REEP1 mutations in degeneration is larg
72 Here we investigate Mediator involvement in HSP (heat shock protein) gene regulation in the yeast Sa
77 cking of AMPA-type of glutamate receptors in HSP, Mecp2 KO neurons have lower levels of early endosom
81 The reticulospinal tract seems unaffected in HSP patients, because startle reflex onsets were normal.
84 modulate protein-handling systems including HSPs and autophagy, thereby reducing the aggregation and
86 nergy MWA and RFA also resulted in increased HSP 70 expression and macrophages in the periablational
88 elevated HSP90 and HSC70 without increasing HSP mRNAs; that is, without induction of the heat shock
89 ithout causing permanent damage would induce HSPs in the cochlea and inhibit ototoxic drug-induced he
90 subunit during chronic tetrodotoxin-induced HSP using hippocampal cultures derived from AMPAR subuni
93 ithin cells and can be purified as an intact HSP-peptide complex, the peptides have had to be complex
95 uding one that is identical to a human Kif5A HSP allele, we identified three routes to suppression of
97 pathways highlighted by these mutations link HSP to cellular transport, nucleotide metabolism, and sy
99 ibution of glia-mediated spatially localized HSP to post-traumatic epileptogenesis remains poorly und
100 etes impairs the function/expression of many HSPs, including HSP70 and HSP90, key regulators of patho
101 lucidate the mechanism of the TNIP1-mediated HSP repression, we determined that TNIP1 likely represse
107 ppaB repressing factor (NKRF) as a nucleolar HSP essential for nucleolus homeostasis and cell surviva
109 l therapy, and intravenous administration of HSP targeted HPMA copolymer-docetaxel at 10mg/kg resulte
113 lysosome function links different classes of HSP proteins, previously considered functionally distinc
114 ng factors, with relevance for counseling of HSP families and planning of future cross-sectional and
115 dren per year) and natural disease course of HSP nephritis (46% initial renal inflammation; 9% subseq
116 n HSP90 inhibitor that causes degradation of HSP chaperones and their client proteins, including epid
121 disease model driven by forced expression of HSP gp96 at the cell surface (transgenic mice [tm]).
122 upon the constitutive neuronal expression of HSP-16.48, a small heat shock protein (HSP) homolog of h
123 naling molecules that underlie some forms of HSP results in the preferential incorporation of GluA2-l
125 hermore we demonstrated that the function of HSP-16.48 in drug sensitivity surprisingly was independe
126 ect a difference in the level or kinetics of HSP expression between young and old mice in all brain r
128 a standardised pathway for the monitoring of HSP will facilitate the implementation of disease regist
131 se results suggest that TNIP1's reduction of HSP expression levels could negatively impact HSP chaper
132 d and was observed when partial reduction of HSP proteins was combined with expression of dominant-ne
138 revealed upregulation of additional forms of HSPs and the downregulation of enzymes of the photosynth
139 core motor phenotype and axonal pathology of HSPs are recapitulated in mice lacking the HSP-associate
140 These results indicate that regulation of HSPs may be through a yet unknown TNIP1-associated pathw
141 d sarcomere dynamics, marked upregulation of HSPs, and reduced myotube resilience following mechanica
143 expression of the alpha-crystallin ortholog HSP-16.48 Using a combination of pharmacology, optogenet
146 ms that cause hereditary spastic paraplegia (HSP) and Charcot-Marie-Tooth type 2 (CMT2) distal neurop
147 otor neurons, hereditary spastic paraplegia (HSP) and distal hereditary motor neuropathy type V (dHMN
148 (AR) complex hereditary spastic paraplegia (HSP) and juvenile onset amyotrophic lateral sclerosis (A
149 o syndromes - hereditary spastic paraplegia (HSP) and mycobacterial disease - thus occurred simultane
151 mal recessive hereditary spastic paraplegia (HSP) caused by frameshift mutations in the SPG20 gene th
156 r REEP1 cause hereditary spastic paraplegia (HSP), a disease characterized by axonal degeneration.
157 inant form of hereditary spastic paraplegia (HSP), a motor-neurological disorder manifested by lower
158 orphology and hereditary spastic paraplegia (HSP), a neurodegenerative disease characterized by axon
159 s genes cause hereditary spastic paraplegia (HSP), a neurological disease involving dying-back degene
160 rted to cause hereditary spastic paraplegia (HSP), although their impact at the cellular level has no
161 ase (CMT) and Hereditary Spastic Paraplegia (HSP), but the mechanism of its involvement in the progre
175 mplicated in hereditary spastic paraplegias (HSPs) is quickly expanding, mostly owing to the widespre
182 er factors, homeostatic synaptic plasticity (HSP) mediates posttraumatic epileptogenesis through unba
184 rvive and undergo homeostatic proliferation (HSP) in the absence of Ag, although the cell-intrinsic m
190 Quercetin treatment and heat shock protein (HSP) 70 knockdown inhibit the NS5A-driven augmentation o
195 olic and organelle-based heat-shock protein (HSP) chaperones ensure proper folding and function of na
197 icroscopy to investigate Heat Shock Protein (HSP) gene conformation and 3D nuclear organization in bu
198 Our findings reveal that heat-shock protein (HSP) gene expression is suppressed during fasting in mou
199 pression of cell surface heat shock protein (HSP) glucose regulated protein 78 kDa (GRP78) was utiliz
201 e the active delivery of heat shock protein (HSP) targeted N-(2-hydroxypropyl)methacrylamide (HPMA) c
204 ominant-negative form of heat shock protein (HSP)110 (HSP110DE9) expressed by cancer cells with MSI,
205 cobacterium tuberculosis heat shock protein (HSP)65 protect against the induction of murine autoimmun
207 e, survivin bound to the heat shock protein (HSP)90, and therefore was resistant to proteasome degrad
209 on fractionation of the heat-stable protein (HSP) fraction revealed further differences in the partit
210 h factor beta [TGFbeta]; heat shock protein [HSP]-70; at-risk alcohol use; and Child class B) we coul
211 factors (HSF genes) and heat shock proteins (HSP genes) is reduced in heat-sensitive transgenic plant
212 lar response to injury: heat shock proteins (HSP) -27 and -70, glial fibrillary acidic protein (GFAP)
213 -1 binds to immunogenic heat shock proteins (HSP) and alpha(2)M ligands to elicit T cell immune respo
215 er-expressed a range of heat shock proteins (HSPs) and identified DNAJB2a (encoded by DNAJB2, and als
216 apsigargin up-regulated heat-shock proteins (HSPs) and interferon (IFN)-regulated genes in PBMCs from
217 m and distinct forms of heat shock proteins (HSPs) and proteins with chaperon functions while protein
220 hat expression level of Heat Shock Proteins (HSPs) can be used as a measurement of buffering levels,
221 Select members of the heat shock proteins (HSPs) family, such as gp96, elicit immune responses spec
222 It is established that heat shock proteins (HSPs) function as molecular helper proteins (chaperones)
223 For more than 50 years, heat shock proteins (HSPs) have been studied for their role in protecting cel
227 rease the expression of heat shock proteins (HSPs) via a heat shock factor (HSF)-dependent mechanism.
229 MRP-1 is chaperoned by heat shock proteins (HSPs) was investigated by immunoprecipitation, immunoflu
230 s for the expression of heat shock proteins (HSPs) were translated from LC-MRM to DI-MRM for implemen
231 d molecular chaperones (heat shock proteins (HSPs)) involved in Tau degradation and microtubule stabi
232 ation of genes encoding heat shock proteins (HSPs), a family of chaperones that refold or degrade mis
234 ranscription factor for heat-shock proteins (HSPs), is known to interfere with the transcriptional ac
235 ssion of cytoprotective heat shock proteins (HSPs), molecular chaperones/cochaperones constituting a
238 ress, plants synthesize heat shock proteins (HSPs), which are often molecular chaperones and are unde
240 (DCs) for large stress/heat shock proteins (HSPs; e.g., hsp110 and grp170), attenuated an antitumor
245 we identified 18 previously unknown putative HSP genes and validated nearly all of these genes functi
248 otypic and genetic spectrum of SPAST-related HSP focused on 118 patients carrying SPAST mutations.
250 n, we determined that TNIP1 likely represses HSPs through factors other than RAR, PPAR or NFkappaB de
255 s associated with a destabilization of small HSPs as the result of a disrupted interaction between BA
258 nts that most frequently identified in SPG3A HSP patients, displayed wild-type levels of activity in
261 dominant and 3.3 for recessive ataxias) than HSP (prevalence, 4.1 per 100,000 population; 2.4 for dom
262 tive microtubule regulators, suggesting that HSP proteins work with microtubules to promote regenerat
265 ction in NK cells, which is important in the HSP anti-tumor immune response, and leaves their cytotox
266 udy suggests that age-related changes in the HSP mechanisms are sufficient to explain the difference
267 group of secreted chaperone proteins in the HSP-90 family that contained the amino acid sequence DDD
270 t domain within the N-terminal region of the HSP-16.48 protein that specified its function in compari
275 stribution as primary defects underlying the HSPs, with clear relevance for other long axonopathies a
277 ranscription initiation factor TFAM binds to HSP and LSP in opposite directions, implying that the me
279 ctivation domains, recruits holo-Mediator to HSP promoters in response to acute heat stress through c
280 15 or Med16, reduces Mediator recruitment to HSP promoters, whereas deletion of both abolishes it.
281 n contrast, we found that binding of TFAM to HSP and the subsequent recruitment of mtRNAP results in
284 s demonstrate that NKRF is an unconventional HSP crucial for correct ribosomal RNA (rRNA) processing
285 ation was similarly impaired in neurons when HSP proteins atlastin, seipin, and spichthyin were reduc
286 al recessive AP-4 deficiency associated with HSP and mycobacterial disease, suggesting that AP-4 may
292 hree mutations in REEP2 in two families with HSP: a missense variant (c.107T>A [p.Val36Glu]) that seg
295 nd cervical cord (P < .001) in patients with HSP relative to healthy control subjects, regardless of
296 ical and cognitive features of patients with HSP who had brain and cervical cord damage were also inv
298 ion.A cohort of 102 children presenting with HSP to a secondary/tertiary level UK paediatric hospital
299 ring period for all patients presenting with HSP, which importantly prioritises patients according to
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