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1                                              HVS encodes seven small RNAs (HSURs) of unknown function
2                                              HVS is an oncogenic gammaherpesvirus that causes acute T
3                                              HVS triggers a distinctive retinopathy with a central re
4                                              HVS-related retinopathy improved in all patients after p
5 hondrial DNA results of 213 individuals (151 HVS-I sequences) from the northeast, central, southeast
6                        Only one HVS (US 708, HVS 2) is a compact helium star.
7 s likely to receive surgery at a HVH or by a HVS compared to urban patients.
8  with lower odds of surgery at a HVH or by a HVS.
9                                 In addition, HVS Deltaorf14 was nononcogenic in common marmosets.
10                                 In addition, HVS deltaSTP/v-ras-immortalized T cells showed a high le
11 r each of Ext-3, Ext-5, F-6, and F-7 against HVS-2 with IC(50) of 101.23, 68.83, 4.88, 3.24 mug/mL an
12 (50) value of the standard acyclovir against HVS-2 was 83.19 mug/mL and IC(50) value of the standard
13                                  This allows HVS-based vectors to stably transduce a dividing cell po
14 iscuss and contrast the AUC with alternative HVS, including the time-averaged AUC, duration of viremi
15 ommon marmosets, while HVS deltaSTP-C488 and HVS deltaTip were nononcogenic.
16 to interact with cellular type D cyclins and HVS v-cyclin.
17 e factors associated with surgery by HVH and HVS.
18  lead to a hyperviscosity syndrome (HVS) and HVS-related retinopathy.
19           Interaction between Integrator and HVS primary miRNA (pri-miRNA) substrates that contain on
20                            Although KSHV and HVS are related members of the rhadinovirus subgroup of
21                                 The KSHV and HVS LANAs have also been shown to be required for mainte
22 Epstein-Barr virus membrane antigen p140 and HVS p160, (ii) HVS and cellular type D cyclins, (iii) HV
23              Finally, HVS deltaSTP/v-ras and HVS deltaSTP/c-ras each induced lymphoma in one of two c
24 itive T lymphocytes, HVS deltaSTP/c-ras- and HVS deltaSTP/v-ras-immortalized cells were principally C
25 these two functional domains of the TEAS and HVS genes resulted in a novel enzyme capable of synthesi
26           The relative ratio of the TEAS and HVS reaction products was also influenced by the source
27 he vitreous of the eye and is induced before HVS regression in the first postnatal week.
28 ons confirmed the close relationship between HVS physiology and retinal neurovascular development.
29 his cis-acting element is sufficient to bind HVS ORF73 from strains C488 and A11, and plasmids contai
30 ets resulted in fulminant lymphoma with both HVS/Tip mSH3B and wild-type HVS.
31  for TS and DHFR enzymes are also encoded by HVS (ORF70 and ORF2), both occur at different genomic lo
32                         A protein encoded by HVS known as Tip-484 (for tyrosine kinase interacting pr
33 ate that, due to the sequestration of Lck by HVS Tip, T cell receptor (TCR) stimulation fails to acti
34 iri-immortalized primary CD4(+) T cells (CD4/HVS), which resemble activated primary T cells.
35                        However, a TR-deleted HVS bacterial artificial chromosome can form replication
36  on the functions of the recently discovered HVS miRNAs, called miR-HSURs.
37                                The distorted HVS regression might result from retinal hyperoxia or do
38                In the absence of Arf, failed HVS regression causes a pathological process that resemb
39                                     Finally, HVS deltaSTP/v-ras and HVS deltaSTP/c-ras each induced l
40 city experiments, the Michaelis constant for HVS was 3.5 microM, while CH3 and CH4 exhibited smaller
41              The patients were evaluated for HVS-related retinopathy, and hemodynamic changes in a ma
42 like sequence (miRNA 3' box) downstream from HVS pre-miRNAs that is essential for miRNA biogenesis.
43 for tyrosine kinase interacting protein from HVS strain 484) is required for this transformation.
44 ull-length form (residues 1-187) of Tip from HVS strain C484.
45                                 Furthermore, HVS terminal repeats (TRs) contain a cis-acting sequence
46                   Analysis of the gammaHV68, HVS, EBV, and KSHV genomes demonstrated that each of the
47                                     However, HVS/Tip mSH3B produced greater infiltration of affected
48        We examined embryonic and fetal human HVS using a variety of techniques to gain new insights i
49  Our results support the view that the human HVS, like the choriocapillaris, develops by hemo-vasculo
50 re less likely to receive surgery from a HVH/HVS.
51 f14 in transformation, a mutant form of HVS (HVS Deltaorf14) was constructed with a deletion in the o
52 rus membrane antigen p140 and HVS p160, (ii) HVS and cellular type D cyclins, (iii) HVS and cellular
53  (ii) HVS and cellular type D cyclins, (iii) HVS and cellular G protein-coupled receptors, and (iv) H
54  Consistently, inhibition of miR-HSUR5-3p in HVS-infected cells decreases their proliferation.
55   Furthermore, the p56lck kinase activity in HVS-infected human peripheral blood T lymphocytes was at
56 ri U RNAs), that are abundantly expressed in HVS-transformed, latently infected marmoset T cells but
57 pesvirus type 4 and a similar motif found in HVS ORF12.
58  the ARE-binding proteins hnRNP D and HuR in HVS-transformed T cells using a new cross-linking assay.
59 ential for transformation and oncogenesis in HVS-infected cells.
60 f is degraded by an ARE-dependent pathway in HVS-transformed T cells, suggesting that HVS may take ad
61 viously known to bind a homologous region in HVS ORF57.
62 8 TR element are maintained and replicate in HVS C488 ORF73-expressing cells.
63 ) are the most abundant viral transcripts in HVS-transformed, latently infected T cells but are not r
64 llular G protein-coupled receptors, and (iv) HVS.
65 pression from a range of both early and late HVS promoters, depending on the target gene.
66 zed CD4- CD8+ single-positive T lymphocytes, HVS deltaSTP/c-ras- and HVS deltaSTP/v-ras-immortalized
67 3.28 vs 2.30, P < .001), as well as the mean HVS score (4.12 vs 3.19, P < .001).
68 f infected marmosets for more than 5 months, HVS Deltaorf14 did not persist at a high level in vivo.
69 cells transformed with wild-type or a mutant HVS lacking the most highly conserved HSURs, HSURs 1 and
70 bits inoculated with Tip-484 deletion mutant HVS.
71 escued after transduction of deletion-mutant-HVS-transformed cells with a lentiviral vector carrying
72            In contrast to other nononcogenic HVS mutant viruses which were repeatedly isolated from p
73 The LYVE-1 expression was detected on normal HVS between E12.5 and P14.
74 oded by other gammaherpesviruses (gene 16 of HVS and KSHV and the BHRF1 gene of EBV).
75 stetraprolin induced following activation of HVS-transformed T cells, but even in such stimulated cel
76 at the signaling and targeting activities of HVS Tip rely on functionally and genetically separable m
77 stent with the lack of oncogenic activity of HVS subgroup B viruses, STP-B was deficient for transfor
78       Orf73, encoding the nuclear antigen of HVS, is the positional homolog of the LANA gene, and the
79 t sequence is a determinant of the degree of HVS STP transforming activity.
80            Despite the pronounced effects of HVS Tip on T cell signal transduction, the details of it
81 ng signal (3' box), generates the 5' ends of HVS pre-miRNA hairpins.
82 of orf14 in transformation, a mutant form of HVS (HVS Deltaorf14) was constructed with a deletion in
83              We constructed a mutant form of HVS in which prolines in the SH3B motif of Tip were alte
84 us, the signaling and targeting functions of HVS Tip rely on two functionally and genetically separab
85 hat may contribute to the immunopathology of HVS infection.
86         However, physiological mechanisms of HVS regression and their correlation with developmental
87 rstanding of the physiological mechanisms of HVS regression in normal and diseased eyes, which is not
88 CT) and OCT angiography (OCTA) monitoring of HVS regression in wild-type and retinal degeneration 10
89 ging platform for longitudinal monitoring of HVS regression, further OCT/OCTA study may lead to in-de
90 t ras can substitute for the STP oncogene of HVS C488 to allow immortalized growth of primary lymphoi
91 ant herpesvirus in which the STP oncogene of HVS was replaced by R1 immortalized T lymphocytes to int
92 ant herpesvirus in which the STP oncogene of HVS was replaced with K1, immortalized primary T lymphoc
93      These results demonstrate that orf14 of HVS is not required for replication but is required for
94            However, the function of ORF73 of HVS has not been thoroughly investigated.
95 e below the level of detection in a panel of HVS-transformed CD8(+) cells with potent HIV-1 inhibitor
96                The transforming potential of HVS Deltaorf14 was tested in cell culture and in common
97 P is required for the oncogenic potential of HVS, we investigated the functional consequence of K1 ex
98              Here we assess the potential of HVS-based vectors for the generation of induced pluripot
99 ents confirmed that the 3' end processing of HVS pre-miRNAs also depends on Integrator activity.
100 ation, we constructed recombinant strains of HVS C488 in which the STP-C488 oncogene was replaced wit
101                    A better understanding of HVS biology will help advance our knowledge of virus-ind
102                       The spike component of HVSs was associated with fast field oscillations (400-60
103 rces determined the amplitude variability of HVSs and sleep spindles.
104 investigate the effects of plasmapheresis on HVS-related retinopathy and retinal hemodynamic paramete
105 ncer, viral miRNAs from the highly oncogenic HVS might also be important for transformation.
106                                     Only one HVS (US 708, HVS 2) is a compact helium star.
107 ion of p53 tetramerization by either LANA or HVS-encoded ORF73, suggesting that p53 inactivation may
108 ntrasts with the recent description of other HVS-transformed CD4+ T cells that provide B cell help pr
109 ost favored ejection mechanism for the other HVSs.
110   Through the interactions with Lck and p80, HVS Tip modulates diverse T-cell functions, which leads
111                                     Parental HVS subgroup C strain 488 immortalized common marmoset T
112                                     Parental HVS subgroup C strain 488 immortalized common marmoset T
113 es and high voltage spike-and-wave patterns (HVSs).
114 -2) knockout mice with abnormally persistent HVS were examined.
115 gly, in contrast to snRNA 3' end processing, HVS pre-miRNA 3' end processing by Integrator can be unc
116 lation or repress Vegf expression to promote HVS involution and prevent PHPV.
117                                  Recombinant HVS deltaSTP/v-ras immortalized primary common marmoset
118 ld-type HVS C488 (wt HVS), while recombinant HVS deltaSTP/c-ras did so with low efficiency.
119 hat the RRV26-95 DHFR more closely resembles HVS DHFR (74% similarity) than KSHV DHFR (55% similarity
120     Plasmapheresis is effective in reversing HVS-related retinopathy and in reducing abnormal venous
121 acting protein (Tip) of Herpesvirus saimiri (HVS) activates the lymphoid-specific member of the Src f
122 ed cyclin (v-cyclin) of herpesvirus saimiri (HVS) and 31% identity and 53% similarity to human cellul
123  by the DNA tumor virus herpesvirus saimiri (HVS) and designated tyrosine kinase interacting protein
124 orming protein (STP) of herpesvirus saimiri (HVS) and of K1 of KSHV, other members of the gamma-2 or
125        The lymphotropic Herpesvirus saimiri (HVS) causes acute leukemia, T-cell lymphoma, and death i
126                         Herpesvirus saimiri (HVS) encodes seven Sm-class small nuclear RNAs, called H
127 ing frame 14 (orf14) of herpesvirus saimiri (HVS) exhibits significant homology with mouse mammary tu
128 ected marmoset T cells, Herpesvirus saimiri (HVS) expresses six microRNAs (known as miR-HSURs [H. sai
129 th the right end of the herpesvirus saimiri (HVS) genome and more limited homology to the left end of
130                     The herpesvirus saimiri (HVS) immediate-early gene product encoded by open readin
131                         Herpesvirus saimiri (HVS) infects a range of human cell types with high effic
132                         Herpesvirus saimiri (HVS) is a gamma-herpesvirus that expresses Sm class U RN
133                         Herpesvirus saimiri (HVS) is a T-cell-specific transforming and oncogenic vir
134                         Herpesvirus saimiri (HVS) is an oncogenic gamma-herpesvirus that produces mic
135                         Herpesvirus saimiri (HVS) is an oncogenic, lymphotropic, gamma-herpesvirus th
136 ) of the T lymphotropic Herpesvirus saimiri (HVS) is constitutively present in lipid rafts and intera
137                         Herpesvirus saimiri (HVS) is divided into three subgroups, A, B, and C, based
138 acting protein (Tip) of herpesvirus saimiri (HVS) is required for binding to the cellular Src family
139 , including the gamma-2 herpesvirus saimiri (HVS) of New World squirrel monkeys.
140 minal repeats (TR) from herpesvirus saimiri (HVS) renders it unable to produce infectious virus or ge
141  by the DNA tumor virus herpesvirus saimiri (HVS) strain 484, designated tyrosine kinase-interacting
142 ogene, called STP-A, of herpesvirus saimiri (HVS) subgroup A is not required for viral replication bu
143 STP oncoproteins of the herpesvirus saimiri (HVS) subgroup A strain 11 and subgroup C strain 488 are
144         Mutant forms of herpesvirus saimiri (HVS) subgroup C strain 488 with deletions in either STP-
145                     The herpesvirus saimiri (HVS) tyrosine kinase-interacting protein (Tip), required
146 d by two herpesviruses, herpesvirus saimiri (HVS) which can transform blood lymphocytes and induce ma
147 Sm class are encoded by Herpesvirus saimiri (HVS), a gamma Herpesvirus that causes aggressive T cell
148  T cells transformed by Herpesvirus saimiri (HVS), a viral U-rich noncoding (nc) RNA, HSUR 1, specifi
149 s human herpesvirus 8), herpesvirus saimiri (HVS), and Epstein-Barr virus (EBV).
150                         Herpesvirus saimiri (HVS), another gamma-2-herpesvirus, primarily infects New
151  genome in RRV26-95 and herpesvirus saimiri (HVS), but in KSHV the DHFR gene is displaced 16,069 nucl
152  herpesvirus (KSHV) and herpesvirus saimiri (HVS), has been shown to encode a latency-associated nucl
153 orming protein (STP) of herpesvirus saimiri (HVS), Kaposi's sarcoma-associated herpesvirus (KSHV) con
154 onors by infection with Herpesvirus saimiri (HVS), to evaluate functional properties of these immorta
155 olog of KSHV ORF57 from herpesvirus saimiri (HVS), we determined the crystal structure of the globula
156 ded by the lymphotropic Herpesvirus saimiri (HVS), we determined the specific sequence and structural
157      The Tip protein of herpesvirus saimiri (HVS), which is a T-lymphotropic tumor virus, interacts w
158 emonstrated that Tip of herpesvirus saimiri (HVS), which is a T-lymphotropic tumor virus, is constitu
159 -1 and CAF derived from herpesvirus saimiri (HVS)-transformed CD8(+) cells inhibited HIV-1 infection
160 e 6 (ORF6) and ORF31 of herpesvirus saimiri (HVS).
161 eading frame (ORF) from herpesvirus saimiri (HVS).
162 elated gammaherpesvirus herpesvirus saimiri (HVS).
163 ymphotropic tumor virus herpesvirus saimiri (HVS).
164        STP-C488 (STP of herpesvirus saimiri [HVS] group C strain 488 [C488]) is the only virus-encode
165 n Scale (EDS) or Heightened Vigilance Scale (HVS), adjusting for age, sex, race/ethnicity, household
166 tochondrial SNPs and hypervariable sequence (HVS) 1, Tamil castes have higher affinity to eastern Asi
167        By deep sequencing, we identified six HVS microRNAs (miRNAs) that are derived from three hairp
168 cellular currents underlying sleep spindles, HVSs, and evoked responses result from activation of int
169  sources were similar during sleep spindles, HVSs, and thalamic-evoked responses, although their rela
170                         Hypervelocity stars (HVSs) travel with velocities so high that they exceed th
171 owever, alternative historical VL summaries (HVS) may better answer the research question of interest
172 which can lead to a hyperviscosity syndrome (HVS) and HVS-related retinopathy.
173  Hyoscyamus muticus vetispiradiene synthase (HVS) gene and by characterization of the resulting chime
174  Hyoscyamus muticus vetispiradiene synthase (HVS), a chimeric 5-epi-aristolochene synthase (CH3), and
175 l regression of the hyaloid vascular system (HVS) in the mouse eye.
176                 The hyaloid vascular system (HVS) is a transient network nourishing developing eyes a
177                 The hyaloid vascular system (HVS) is known to have an important role in eye developme
178 cell biology in the hyaloid vascular system (HVS) of the developing eye.
179 opment of the human hyaloid vascular system (HVS) remains unclear.
180               These results demonstrate that HVS utilizes a novel signaling protein, ORF5, to activat
181                          We demonstrate that HVS-based exogenous delivery of Oct4, Nanog, and Lin28 c
182 processing assays in vitro demonstrated that HVS does not utilize the Microprocessor complex that gen
183                  These results indicate that HVS-immortalization of CD4+ lymphocytes may produce T ce
184 udy Adolescent Master Protocol, we show that HVS and their associations with full-scale intelligence
185                                 We show that HVS miRNA biogenesis relies on cis-acting elements speci
186                 In this report, we show that HVS ORF73 may be important for episome persistence and c
187  in HVS-transformed T cells, suggesting that HVS may take advantage of the host ARE-mediated mRNA dec
188                                          The HVS STP-C488 P10-->R mutant was deficient in human T-lym
189 erentiation trials suggest that although the HVS-derived putative iPCs are capable of differentiation
190 g the frequency of unfair treatment, and the HVS, measuring how often individuals anticipate or prepa
191 mon marmoset lymphocytes immortalized by the HVS/Tip mSH3B mutant displayed increased expression of H
192 ns C488 and A11, and plasmids containing the HVS C488 TR element are maintained and replicate in HVS
193 vestigate whether LYVE-1 is expressed in the HVS and how it is associated with the vascular structure
194 s that map to the host genome but few in the HVS genome.
195                                       In the HVS, Arf expression in perivascular cells may block thei
196  there is no report on its expression in the HVS.
197 farther diverged from human DHFR than is the HVS version, implying that they were probably acquired a
198                                Moreover, the HVS episome is able to persist and provide prolonged tra
199 roducts of the tobacco enzyme, exon 6 of the HVS gene conferred specificity for the predominant react
200          Nucleotide sequence analysis of the HVS genome revealed an open reading frame with 22% amino
201           The transforming potentials of the HVS mutants were tested in cell culture and in common ma
202 ng the embryogenesis and pathogenesis of the HVS, it also leads to a completely natural model in whic
203                      Further analysis of the HVS-derived putative iPCs showed some degree of reprogra
204  95% CI: 1.62-1.87) and higher scores on the HVS (adjusted OR: 1.61, 95% CI: 1.51-1.72).
205                                   ORF73, the HVS homologue of LANA, is shown to bind both p53 and pRb
206 s study provides the first evidence that the HVS contains a LYVE-1(+) cellular component in both phys
207 homologous to HVS and KSHV ORFs and used the HVS/KSHV numbering system to designate these ORFs.
208  interleukin-2-independent growth, while the HVS Deltaorf14 mutant did not produce such a growth tran
209 episome persistence and colocalizes with the HVS genomic DNA on metaphase chromosomes.
210 rf, perivascular cells accumulate within the HVS and prevent its involution.
211                                   Therefore, HVS Tip uniquely targets the retromer complex to impair
212 d that these activities likely contribute to HVS-mediated lymphoid cell immortalization in culture an
213  63 open reading frames (ORFs) homologous to HVS and KSHV ORFs and used the HVS/KSHV numbering system
214 he v-cyclin of the T-lymphocyte-transforming HVS in its specificity for association with cdk6 and in
215 dependent growth as efficiently as wild-type HVS C488 (wt HVS), while recombinant HVS deltaSTP/c-ras
216                                    Wild-type HVS produced fatal lymphoma within 19 to 20 days of expe
217 mphoma with both HVS/Tip mSH3B and wild-type HVS.
218 erating lymphoid cells compared to wild-type HVS.
219  compared to cells immortalized by wild-type HVS.
220                            The mutant virus, HVS/Tip mSH3B, retained its ability to immortalize commo
221 imental infection of common marmosets, while HVS deltaSTP-C488 and HVS deltaTip were nononcogenic.
222                    Infection of T cells with HVS or expression of recombinant Tip-484 significantly i
223 ot altered in T cells latently infected with HVS mutants lacking HSURs 1 and 2.
224 lize with p53 in human T cells infected with HVS, and in cells overexpressing both ORF73 and p53, as
225                           Nine patients with HVS due to WM were studied.
226                        gammaHV68 shares with HVS and KSHV ORFs homologous to a complement regulatory
227 wth as efficiently as wild-type HVS C488 (wt HVS), while recombinant HVS deltaSTP/c-ras did so with l
228                                   Whereas wt HVS immortalized CD4- CD8+ single-positive T lymphocytes

 
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