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1 least 1000-fold more toxic than recombinant Tat protein.
2 h transactivation of the HIV promoter by the Tat protein.
3 a cell-penetrating peptide derived from the TAT protein.
4 those observed for peptides derived from the Tat protein.
5 human immunodeficiency virus type I (HIV-1) Tat protein.
6 tion (CHIPDeltaU-box), was unable to degrade Tat protein.
7 n sequence from human immunodeficiency virus TAT protein.
8 similar to those of the ungulate lentiviral Tat protein.
9 s for deleterious mutations elsewhere in the Tat protein.
10 PTD) derived from the human immunodeficiency TAT protein.
11 erase II is strongly stimulated by the viral Tat protein.
12 onal repression by DRB and activation by the Tat protein.
13 human immunodeficiency virus type 1 (HIV-1) Tat protein.
14 n elongation complexes is inhibited by HIV-1 Tat protein.
15 ed cells were treated with exogenously added Tat protein.
16 n in the presence of either DRB or the HIV-1 Tat protein.
17 Vpu also expressed a functional single-exon Tat protein.
18 es capable of neutralizing the effect of the Tat protein.
19 oter of HIV-1 that is activated by the HIV-1 Tat protein.
20 fection with HIV-1, in part due to the HIV-1 Tat protein.
21 physical interaction between MED14 and HIV-1 Tat protein.
22 direct effects of viral proteins such as the Tat protein.
23 annels in the response of microglia to HIV-1 Tat protein.
24 transactivation, along with stabilization of Tat protein.
25 orescence microscopy of Texas Red-conjugated TAT proteins.
26 for transcriptional activation by lentivirus Tat proteins.
27 o the translocon, FRET was observed for both Tat proteins.
28 e and HIV-1 transactivator of transcription (Tat) protein.
29 g the HIV-1 transactivator of transcription (Tat) protein.
30 dies examined the ability of two variants of Tat protein (1-100 nM), Tat 1-72 and Tat 1-86, to produc
32 s cellular defense, HIV-1 has evolved in its Tat protein a suppressor of RNA silencing (SRS) function
33 he human immunodeficiency virus type 1 (HIV) Tat protein, a potent activator of HIV gene expression,
34 l region of the human immunodeficiency virus Tat protein, a protein transduction domain known to ente
35 demonstrate that highly divergent lentiviral Tat proteins activate transcription from their cognate L
37 wnstream of the MyD88 and TRIF pathways, the Tat protein activated the protein kinase C (PKC) betaII
39 Human immunodeficiency virus, type 1 (HIV-1) Tat protein activates transcription from the HIV-1 long
40 s basal HIV gene expression and that the HIV Tat protein activates transcription independently of the
41 uman immunodeficiency virus, type 1 (HIV-1), Tat protein activates viral gene expression through prom
42 T-tg or C57BL/6J mice; however, induction of Tat protein after the extinction of CPP also produced re
43 by vGPCR was greatly increased by the HIV-1 Tat protein, although Tat alone had little effect on NF-
44 ransduction domain (PTD) embedded in the HIV TAT protein (amino acids 47-57) has been shown to succes
45 study was to determine whether and how HIV-1 Tat protein, an immunosuppressive viral factor, induces
46 PI3K-dependent inhibition required the viral Tat protein and a trans activation response region eleme
47 ar cofactor cyclin T1, which binds the viral Tat protein and activates the RNA polymerase II transcri
49 ble to that of the RNA-binding domain of the Tat protein and inhibited protein binding to the RNA.
50 uction of NO production by recombinant HIV-1 Tat protein and inhibition of RSV-tat-induced NO product
51 anges conformation in response to binding of Tat protein and of a variety of peptidic and small molec
52 e suggest a model where CycT1 interacts with Tat protein and positions the protein complex to make co
54 M) of the human immunodeficiency virus (HIV) Tat protein and TAR RNA is essential for Tat activation
57 cture, termed TAR RNA, in concert with HIV-1 Tat protein and these positive and negative elongation f
58 protein transduction domain (PTD) of the HIV/TAT protein and transduced pancreatic islets ex vivo wit
59 ciates with the human immunodeficiency virus Tat protein and with the transactivation response elemen
61 man immunodeficiency virus 1-transactivator (Tat) protein and linked to the mitochondrial targeting s
62 V replication, with associated production of Tat protein, and C. parvum infection synergistically inc
63 with the human immunodeficiency virus type 1 Tat protein, and Drosophila mof, a gene essential for ma
64 s have documented the neurotoxic property of Tat protein, and Tat has therefore been proposed to cont
65 observed that neuronal cultures treated with Tat protein are protected from Tat-mediated cytotoxicity
66 ysiology of M. smegmatis and homologs of the TAT proteins are also present in the genome of Mycobacte
70 ptide mimic of the RNA-binding domain of BIV Tat protein based on a designed beta-hairpin scaffold.
71 d, however, by immunization with inactivated Tat protein before vaccination with the bicistronic gp12
72 tides from the carboxy terminus of the HIV-1 Tat protein bind to the apical stem-loop region of TAR R
73 The arginine-rich RNA-binding domains of the Tat proteins bind to their cognate transactivation respo
77 NF-kappa B, AP-1, JNK, and apoptosis by HIV-tat protein but has minimal or no role in activation of
84 ch as HIV-1 Transactivator of Transcription (Tat) protein can activate microglia is thus of paramount
87 piCCT1 has a region of similarity to the HIV Tat protein cell-transduction domain, we tested whether
88 RNA polymerase II, is regulated by the HIV-1 Tat protein, CK2, TFIIB, and the large subunit of TFIIF
89 in vitro biochemical assays with recombinant Tat protein confirmed that TR1 targets two disulfide bon
91 cause HIV-1 Transactivator of Transcription (Tat) protein continues to be present despite antiretrovi
99 exposure of cultures to a deletion mutant of Tat protein devoid of amino acids 31-61 (Tat Delta31-61)
101 Moreover, the CycT1 complex formed by each Tat protein displays a distinct RNA target specificity t
102 pendent on the same cellular cofactor as the Tat proteins encoded by other lentiviruses, is neverthel
105 uorum-sensing and uncover a function for the Tat protein export system in the production of secreted
108 ly proposed a two-step model where the viral Tat protein first preassembles at the promoter with an i
109 The pretreatment of human monocytes with Tat protein for 10 to 30 min suffices to irreversibly en
110 d to the nontoxic transduction domain of the tat protein from human immunodeficiency virus type 1 (ta
111 recently identified inhibitors of the viral Tat protein from the bovine immunodeficiency virus (BIV)
113 Brief exposure (10 min) to each variant of Tat protein (>1 nM) markedly increased levels of intrace
114 athione peroxidase, NK-lysin/granulysin, HIV Tat protein, H(2)O(2), lipid hydroperoxides, vitamin K,
118 human immunodeficiency virus type 1 (HIV-1) Tat protein has been reported to transactivate several c
119 ddition, our results indicate that the alpha-TAT protein has functions that require acetyltransferase
120 findings are particularly important because Tat protein has recently been detected in the brain of H
121 ated that a TAT peptide derived from the HIV TAT protein has the ability to transduce peptides or pro
123 Several HIV-1-derived proteins including the Tat protein have been shown to transcriptionally repress
126 human immunodeficiency virus type 1 (HIV-1) Tat protein (hTat) activates transcription initiated at
128 eterminants of TAR recognition by: (i) viral Tat proteins, (ii) an innovative lab-evolved TAR-binding
130 ndent on the presence of both HAT domain and Tat proteins, implying that Tat influences the transcrip
131 P-expressing plasmid decreased the levels of Tat protein in a dose-dependent manner, without affectin
135 gain a better understanding of the roles of Tat protein in HIV-1 neuropathogenesis, we attempted to
137 nly further highlights the importance of HIV Tat protein in HIV/neuroAIDS, but also presents a new st
138 wn to suppress transcriptional activation by Tat protein in human cells with an IC(50) of approximate
140 ctivation, we explored the role of the HIV-1 Tat protein in inducing the expression of these endogeno
143 R is not required for binding by recombinant Tat protein in vitro, suggesting that the loop region ac
144 L response to autologous virus Env, Gag, and Tat proteins in three patients, and investigated the ext
146 mbinant biologically active HIV-1-associated Tat protein increased FasL expression in the cytoplasm o
147 cryptosporidiosis, we found that recombinant Tat protein increased TLR4 mRNA expression in both uninf
149 itioned media from astrocytes or recombinant Tat protein inhibited NPC proliferation and migration an
151 in the brain, or by injection of recombinant Tat protein into the brain, which may cause secondary st
152 human immunodeficiency virus type 1 (HIV-1) Tat protein is a key pathogenic factor in a variety of a
154 eptide from the Jembrana disease virus (JDV) Tat protein is a structural "chameleon" that binds bovin
155 efore, this study analyzed whether the HIV-1 Tat protein is able to activate these two pathways separ
156 g domain of the Jembrana disease virus (JDV) Tat protein is able to recognize two different TAR RNA s
157 l repeat (LTR) promoter element by the viral Tat protein is an essential step in the HIV-1 life cycle
160 human immunodeficiency virus type 1 (HIV-1) Tat protein is essential for viral replication and stimu
162 that the bovine immunodeficiency virus (BIV) Tat protein is fully able to bind to BIV TAR both in viv
163 mmunodeficiency virus (HIV) infection, HIV-1 Tat protein is known to synergize with psychostimulant d
166 n of the bovine immunodeficiency virus (BIV) Tat protein is shown to bind specifically to its target
170 we showed that neurotoxic factors other than Tat protein itself were present in the supernatant of Ta
173 ion with HIV-1 or stimulation with the HIV-1 Tat protein leads to the activation of K111 proviruses.
174 TLR4 pathway with rapid kinetics, the HIV-1 Tat protein leads to the engagement of both the MyD88 an
175 TLR4 pathway with rapid kinetics, the HIV-1 Tat protein leads to the engagement of both the MyD88 an
177 hat the HIV transactivator of transcription (Tat) protein manipulates the intrinsic toggling of HIV's
180 tion of dopaminergic system induced by HIV-1 Tat protein-mediated direct inhibition of the dopamine t
181 y virus type 1 (HIV-1) potent transactivator Tat protein mediates pleiotropic effects on various cell
182 To characterize the mechanism by which HIV-1 Tat protein modulates human brain microvascular endothel
183 ned whether exposure of susceptible cells to Tat protein of HIV could result in the production of sel
187 ation to define the interactions between the Tat proteins of Escherichia coli at molecular-level reso
188 at transactivation assay, where we expressed Tat proteins of HIV-1 clade B (Tat-B) or C (Tat-C) or th
190 Here we investigated the effects of the Tat protein on enteric neuronal excitability, proinflamm
191 the KS-promoting factor TNF-alpha, the HIV-1 Tat protein, or the human herpesvirus 8 protein ORF74, w
192 The transacting activator of transduction (TAT) protein plays a key role in the progression of AIDS
193 e 1 (HIV-1) transactivator of transcription (Tat) protein possesses a unique membrane-transduction pr
195 nding to the same site as arginine 52 of the Tat protein, rather than to the neomycin binding site.
198 human immunodeficiency virus type 1 (HIV-1) Tat protein recruits positive transcription elongation f
199 human immunodeficiency virus type-1 (HIV-1) Tat protein regulates transcription by stimulating RNA p
202 ed with a variant TAR able to bind all three Tat proteins replicate efficiently with any of the prote
203 LTR) promoter element by the essential viral Tat protein requires recruitment of positive transcripti
204 demonstrated that exposure of HUVECs to HIV Tat protein resulted in induced expression of cell adhes
205 domain from the human immunodeficiency virus TAT protein, results in delivery of the biologically act
206 position 31, found in >90% of HIV-1 clade C Tat proteins, results in a marked decrease in IL-10 prod
208 component of the twin-arginine translocase (Tat) protein secretion pathway and likely forms a secret
210 found that treatment of DCs with whole HIV-1 Tat protein significantly upregulated the level of expre
216 cein-labeled TAR RNA and a rhodamine-labeled Tat protein synthesized through solid-phase chemistry.
217 uction was achievable, as minimum amounts of Tat protein, synthesized following application of a shor
218 n domain of the human immunodeficiency virus TAT protein (Tat), an Angiopep peptide (Ang-2), and the
220 treatment with a CRMP2 peptide fused to HIV TAT protein (TAT-CBD3) blocked neuronal death following
221 udy the interaction between PTD of the HIV-1 Tat protein (TAT-PTD; residues 47-60 of Tat, fluorescent
223 to the HIV transactivator of transcription (TAT) protein (TAT-CBD3) decreased neuropeptide release f
225 ed to the protein transduction domain of HIV-TAT protein (TATFLAGVHL-peptide) to facilitate entry int
226 An 11-residue basic domain of the HIV-1 tat protein, termed the tat transduction domain (TTD), h
227 element is regulated by the essential viral Tat protein that binds to the viral TAR RNA target and r
228 netrating peptide (CPP) conjugate of the HIV TAT protein that is fused to an aminoterminal sequence o
229 immunodeficiency virus (SIVmnd), also encode Tat proteins that activate transcription via RNA targets
230 ty is seen in viral replication assays using Tat proteins that rely on CycT1 for TAR binding but are
231 upporting HIV-1 transactivation by the viral Tat protein, the AFF4-SEC is more important for HSP70 in
232 ed by the human immunodeficiency virus (HIV) Tat protein to activate elongation of the integrated pro
236 in concert with these factors and the HIV-1 Tat protein to ensure that viral transcription is induce
238 conjugation of peptides derived from the HIV TAT protein to membrane-impermeant molecules has gained
241 continues to synergize normally with the HIV Tat protein to transactivate the HIV long terminal repea
242 at is responsible for the inability of these Tat proteins to produce high IL-10 levels in monocytes d
243 report that binding of HIV-1 transactivator (Tat) protein to low-density lipoprotein receptor-related
245 th versions of these peptides containing HIV-Tat protein transduction and mammalian mitochondrial tar
247 or-associated Ag (OVA) that contains the HIV TAT protein transduction domain (PTD) was readily engine
248 r uptake of the human immunodeficiency virus TAT protein transduction domain (PTD), or cell-penetrati
249 ass IA PI3K adaptor subunit, fused to an HIV-TAT protein transduction domain (TAT-Deltap85) concentra
252 d recombinant fusion proteins containing the TAT protein transduction domain and either wild-type Sur
253 ptide was redesigned to TSB2 that includes a TAT protein transduction domain and shortened to 14 aa.
254 een fluorescent protein or dnRas lacking the TAT protein transduction domain did not block airway inf
256 56 to 76 amino acid (aa) region and the HIV Tat protein transduction domain, and this peptide marked
260 a physiological role for nuclear RACK1, the Tat protein transduction system was used to transduce RA
262 we used the transactivator of transcription (TAT) protein transduction domain to deliver human FXN pr
263 e effect of transactivator of transcription (TAT) protein transduction of the apoptosis repressor wit
267 omponents of the thylakoid deltapH-dependent/Tat protein transport machinery was analyzed in vitro.
268 te the mechanism and energetics of bacterial Tat protein transport, we developed an efficient in vitr
269 protein (GFP)-tagged constructs to study the Tat protein transporter and Rieske Tat substrates in Syn
271 ophobic domain may play an important role in Tat protein uptake and be useful for intracellular deliv
272 The viral trans-activator of transcription (Tat) protein uses an archetypal arginine-rich motif (ARM
276 Here, we demonstrate that the Cv-pdg-NLS-TAT protein was delivered to repair-proficient keratinoc
277 Based on the intrinsic disordered nature of Tat protein, we focused our attention on host cell E3 ub
279 n domain of the human immunodeficiency virus TAT protein, were tested in in vitro and in vivo experim
280 ion of human immunodeficiency virus requires Tat protein which activates elongation of RNA polymerase
283 opolysaccharide (LPS) and the neurotoxic HIV Tat protein, which cause dopamine neuronal toxicity afte
284 utlined various strategies for detecting the Tat protein, which helps transcribe the virus and enhanc
285 cy virus (HIV)-1 genes is activated by HIV-1 Tat protein, which induces phosphorylation of the C-term
286 This is mediated in part through the HIV-1 Tat protein, which is secreted by the infected cells and
287 by the human immunodeficiency virus, type 1 Tat protein, which is secreted by virally infected cells
290 ide (Abeta1-6A2V), linked to the HIV-related TAT protein, which is widely used for brain delivery and
292 HIV-1 transcription is activated by HIV-1 Tat protein, which recruits cyclin-dependent kinase 9 (C
293 V-1) transcription is regulated by the viral Tat protein, which relieves a block to elongation by rec
294 human immunodeficiency virus type 1 (HIV-1) Tat protein, which was able to restore the 7SK-binding a
295 V-1) replication requires the interaction of Tat protein with the human cyclinT1 (hCyclinT1) subunit
296 1 (HIV-1) requires specific interactions of Tat protein with the trans -activation responsive region
297 1 (HIV-1) requires specific interactions of Tat protein with the trans-activation responsive region
298 expression that requires the interaction of Tat protein with the trans-activation responsive region
299 ciency virus (HIV) tat and boosting with the Tat protein would elicit protection against SHIV(89.6P).
300 to membrane translocation signals from HIV-1 tat protein (YGRKKRRQRRRPP-LRK(5)H, DT-2) or Drosophila