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1 , an effect that is antagonized by the viral Nef protein.
2 IV-1(NL4-3) also created a dominant-negative Nef protein.
3 also generated in vitro using DC pulsed with Nef protein.
4 sine-based activation motif within the viral Nef protein.
5 ctivation of the c-kit promoter by the HIV-1 Nef protein.
6 T) from the cytoplasmic tail of CD4 binds to Nef protein.
7 ions which contained only 27-kDa full-length Nef protein.
8 SER5 from domestic cats and protected by its Nef protein.
9 rus-1 (HIV-1), which is antagonized by HIV-1 Nef protein.
10 ast in part, to be attributable to the HIV-2 Nef protein.
11 the SMR domain ((66)VGFPV(70)) of the HIV-1 Nef protein.
12 infectivity but is antagonized by the viral Nef protein.
13 booster immunizations with SIV gp140 and SIV Nef protein.
14 aining about 82% of the activity of the full Nef protein.
15 Tat, and Nef RNAs but do not express Tat and Nef proteins.
16 ength (32- to 36-kDa) or truncated (<32 kDa) Nef proteins.
17 imian or human immunodeficiency virus type 1 Nef proteins.
18 cells is indeed differentially modulated by Nef proteins.
19 scripts frequently encoded HIV-1 Gag-p17 and Nef proteins.
20 ally competent and produce the HIV-1 Gag and Nef proteins.
21 topes derived from virion-associated Gag and Nef proteins.
22 and -SIV nef recombinants and Tat, Env, and Nef proteins.
23 were predominantly focused on viral Gag and Nef proteins.
24 directed against epitopes within the Gag and Nef proteins.
25 t and Rev) and accessory (Vif, Vpr, Vpu, and Nef) proteins.
27 HIV-1 group M subtypes, we demonstrate that Nef proteins across all lentiviral lineages downregulate
28 We analyzed the anti-SERINC5 activity of Nef proteins across primate lentiviruses and examined wh
29 s unknown whether this property is common to Nef proteins across primate lentiviruses and how antivir
30 with the human immunodeficiency virus type I Nef protein activates Hck tyrosine kinase and biological
32 st from the cytosol, to be replaced by novel NEF proteins, among which the Hsp110 family stands out.
33 were exposed to baculovirus-expressed HIV-1 Nef protein, an HIV-1-based vector expressing Nef, splee
35 shed by mutations in the central part of the Nef protein and in particular by those known to disrupt
36 fectivity requires the presence of the viral Nef protein and the cellular protein cyclophilin A (CyPA
38 ressure to restore expression of a truncated Nef protein, and this reversion was linked to increased
41 opithecini tetherin and demonstrate that all Nef proteins are capable of antagonizing ancestral Cerco
43 human immunodeficiency virus type 1 (HIV-1) Nef proteins are related regulatory proteins that share
46 ce: These data indicate that using the whole Nef protein as a vaccine immunogen likely allows immunod
47 c CTL responses generated to exogenous HIV-1 Nef protein as well as intracellularly expressed nef tra
48 s 174 and 175 in the full-length recombinant Nef protein background completely abrogated binding of c
49 I MHC nearly as effectively as the wild-type Nef protein, but was only about 60% as effective for CD4
50 ion of cell-surface CD4 induced by the viral Nef protein can fully reverse this inhibition and is, th
52 cell cycle, we investigated whether the SIV Nef protein can modulate cell proliferation and apoptosi
54 and 75 kDa, which do not interact with other Nef proteins, correlated with the decreased virion infec
55 ation of NefF12 suggested that the wild-type Nef protein could bind to assembly intermediates in late
63 A fluorescently tagged motif peptide and Nef protein displayed physical binding to CXCR4-transfec
65 iciency virus (HIV) immune response, the HIV Nef protein disrupts major histocompatibility complex cl
68 tion existed between the extent to which the Nef proteins downregulated cell surface MHC-I and CD4 an
75 human immunodeficiency virus type 1 (HIV-1) Nef protein enhances viral infectivity by an unknown mec
77 mote kinase activity and show that the HIV-1 Nef protein evolved distinct mechanisms to activate Src
78 Human immunodeficiency virus type 1 (HIV-1) Nef protein exerts several effects, both on infected cel
79 ination assay showed that both HIV-1 and SIV Nef proteins expressed in Jurkat T cells and 293T cells
80 ein degradation; how the viral Vpu, Env, and Nef proteins facilitate internalization and degradation
83 ssue of Cell, Schindler et al. show that the Nef protein from nonpathogenic strains of simian immunod
91 site-specific mutagenesis to generate mutant Nef proteins fused to bacterial glutathione S-transferas
92 on of the human immunodeficiency virus (HIV) Nef protein has been linked to both decreased cell surfa
93 e, a highly conserved activity of lentiviral Nef proteins has dual effects and imposes both fitness c
95 Finally, viruses expressing a full-length Nef protein in conjunction with the changes in the TM ha
97 V-1 peptides spanning the Gag, Pol, Env, and Nef proteins in addition to the baculovirus-derived p24
98 HIV and simian immunodeficiency virus (SIV) Nef proteins in the context of recent structural advance
99 Many functions have been ascribed to the Nef protein, including the down-regulation of cell surfa
100 ions via different surfaces in SIV and HIV-1 Nef proteins indicates that these interactions have crit
101 human immunodeficiency virus type 1 (HIV-1) Nef proteins induce the endocytosis of CD4 and class I M
102 tion of human macrophages with exogenous HIV Nef protein induced phosphorylation of Akt and GSK-3beta
103 n the Nef protein appear to be necessary for Nef protein-induced apoptosis as well as for physical in
105 of evidence support the hypothesis that the Nef protein interacts directly with the cellular protein
111 imal viral infectivity, the possibility that Nef protein is included in the virion was investigated.
114 human immunodeficiency virus type 1 (HIV-1) Nef protein is required for efficient virus replication
117 n of the human immunodeficiency virus type 1 Nef protein is the downregulation of CD4 from the surfac
120 CD4 left at the surface of cells expressing Nef proteins isolated from ECs are sufficient to allow E
122 vitro binding studies using recombinant SIV Nef proteins lacking CAIDs and recombinant CD3-zeta cyto
123 ncomitant genetic diversity, the majority of Nef proteins maintained robust abilities to down-regulat
124 ormational change in the myristoylated HIV-1 Nef protein (myrNef): at high lipid packing density, myr
127 s revealed that while neither the mutant SIV Nef protein nor 8-zeta colocalized with AP-2 when expres
133 uine infectious anemia virus (EIAV), and the Nef protein of human immunodeficiency virus type 1 (HIV-
139 lved Vpu as a tetherin antagonist, while the Nef protein of less widespread HIV-1 group O strains acq
140 ment of amino acid residues 17 and 18 of the Nef protein of SIVmac239 with the corresponding amino ac
141 the corresponding amino acid residues of the Nef protein of SIVsmmPBj14 yielded a PBj-like virus that
142 ctivation motif (ITAM) that is unique to the Nef protein of the acutely pathogenic simian immunodefic
154 in human tetherin prevents antagonism by the Nef proteins of SIVcpz and SIVgor, which represent the a
156 tional organization is conserved between the Nef proteins of the human and simian immunodeficiency vi
157 Overall, 6 (10%) of 60 persons had truncated Nef proteins; of these, 5 were among the 36 asymptomatic
158 hocytes (CTLs) due to the effects of the HIV Nef protein on antigen presentation by major histocompat
161 The human immunodeficiency virus type 1 Nef protein performs several functions potentially impor
166 ade A, B, and C proteins was substantial for Nef proteins (ratio, 0.97 [95% confidence interval, 0.89
169 The analysis of three rare mutations in this Nef protein revealed that these effects could be separat
170 Amino acid sequence alignment with active Nef proteins revealed differences in regions not previou
175 rus type 1 (HIV-1) and the majority of HIV-2 Nef proteins tested did not have such strong effects.
176 tyrosine substitution at position 17 in the Nef protein that is a major determinant of virulence but
177 -mediated anti-tetherin activity, acquired a Nef protein that is able to target a region adjacent to
179 s.IMPORTANCE Primate lentiviruses encode the Nef protein that plays an essential role in establishing
180 meric HIV-1 constructs expressing lentiviral Nef proteins that differ in their ability to down-modula
181 tyrosine motifs are not present in the HIV-1 Nef protein, the molecular basis for the presumed intera
183 st simian immunodeficiency viruses use their Nef protein to antagonize the host restriction factor te
184 r vesicles increased transfer of cytosol and Nef protein to endothelial monolayers in a Rac1-dependen
185 an immunodeficiency viruses (SIVs) use their Nef proteins to counteract the restriction factor tether
187 human immunodeficiency virus type 1 (HIV-1) Nef protein upregulates the expression of the invariant
189 nce between HIV-1 and HIV-2/SIV in which the Nef proteins utilize structurally distinct motifs for bi
192 found entirely in rafts while the wild-type Nef protein was distributed 10% in rafts and 90% in the
196 n lipid rafts were not affected, this mutant Nef protein was poorly incorporated into viral particles
197 e constitutively expressing the native HIV-1 Nef protein was used to coimmunoprecipitate a stable Nef
198 ively high concentrations of exogenous HIV-1 Nef protein were able to induce apoptosis in MVECs.
199 ilar quantities of proteolytically processed Nef protein were detected in gradient fractions of HIV-1
200 ading frames that directed the expression of Nef protein were recovered from all of the individuals.
201 onses to clade E and B Gag, Pol-RT, Env, and Nef proteins were compared in 12 HLA-characterized, clad
207 mate lentiviruses (HIV-1, HIV-2, SIV) encode Nef proteins, which are important for viral replication
208 e physical binding of a fluorescently tagged Nef protein, while CCR5 antibodies were ineffective.
209 loops in the Nef molecule to co-localize the Nef protein with AP-2 adaptor complexes at the cell marg
210 eterologous SH4 domains resulted in chimeric Nef proteins with distinct steady state subcellular loca