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1 patients who withdrew for reasons other than virologic failure).
2 ion of antiretroviral therapy and to prevent virologic failure.
3 mL were associated with an increased risk of virologic failure.
4 alf (19 of 32) had resistance at the time of virologic failure.
5 tricitabine resistance in most patients with virologic failure.
6 .15; 95% CI, 1.03-1.28) were associated with virologic failure.
7  in a subset of patients treated with SOF at virologic failure.
8 27 of the remaining subjects who experienced virologic failure.
9 iscontinued treatment for reasons other than virologic failure.
10 patients who withdrew for reasons other than virologic failure.
11 was not detected among subjects experiencing virologic failure.
12 but did increase 4-12 weeks before confirmed virologic failure.
13  subjects in the random cohort, 57 (26%) had virologic failure.
14 cts plus unselected subjects who experienced virologic failure.
15 reappeared at relapse in all 3 patients with virologic failure.
16  was associated with decreased likelihood of virologic failure.
17 evirapine were independently associated with virologic failure.
18 0.98; 95% CI, .97-.99) decreased the risk of virologic failure.
19 sed before study treatment (baseline) and at virologic failure.
20 oviral therapy (baseline) and at the time of virologic failure.
21 ce of L159F or V321A to 2% (1 of 50 each) at virologic failure.
22 tly at baseline but were not associated with virologic failure.
23 1 subtype were independently associated with virologic failure.
24           Relapse accounted for all cases of virologic failure.
25 l, Mozambique, were previously evaluated for virologic failure.
26                               No patient had virologic failure.
27  an independent risk factor for clinical and virologic failure.
28 pleted treatment in either study experienced virologic failure.
29  higher probability of Y181C detection after virologic failure.
30 ed with a higher risk of NNRTI resistance at virologic failure.
31 d during 1998-2006 with a primary outcome of virologic failure.
32 s; 2) for treatment changes, and 3) for each virologic failure.
33  type of resistance mutations detected after virologic failure.
34 nd types of resistance mutations detected at virologic failure.
35 after 5 months of treatment, in a context of virologic failure.
36  virologic suppression (88%-93%), subsequent virologic failure (0.1%-0.6%/month), and Medicaid-discou
37 rologic failures (hazard ratio for the first virologic failure, 0.39; hazard ratio for the second vir
38 c failure, 0.39; hazard ratio for the second virologic failure, 0.47), as well as the failure of the
39                  The cumulative incidence of virologic failure 1 year after having maintained a LLV f
40         Intermittent viremia did not predict virologic failure: 10 (10.4%) of 96 patients with and 20
41               Three participants experienced virologic failure 12, 14, and 20 weeks after simplificat
42 ce interval, 1.46 to 3.72; P<0.001), with 57 virologic failures (14%) in the abacavir-lamivudine grou
43 rom the randomly selected subcohort (51 with virologic failure, 144 without virologic failure), plus
44 d lopinavir group), and 5 died without prior virologic failure (4 in the nevirapine group and 1 in th
45 t LLV (GSS <3) had a 2.1-fold higher risk of virologic failure (95% confidence interval, 1.2- to 3.7-
46 were maintained on their study regimen after virologic failure accumulated additional Nvp and 3TC mut
47               Predictors for shorter time to virologic failure after initial suppression in multivari
48 fected with hepatitis C virus who experience virologic failure after treatment with direct-acting ant
49 95% confidence interval [CI], 1.09-4.18) and virologic failure (aHR 2.42; 95% CI, 1.33-4.41).
50                                        After virologic failure, all Envs acquired resistance to ENF b
51 cipients satisfied prespecified criteria for virologic failure, all with genotype 1a infection.
52 vents among white participants and decreased virologic failure among black participants.
53                                              Virologic failure and changes in CD4 count in relation t
54  was associated with decreased likelihood of virologic failure and decreased emergence of efavirenz-r
55                            Identification of virologic failure and early management mitigates the gre
56           The association between subsequent virologic failure and persistence status were estimated
57 Associations between selected covariates and virologic failure and resistance were evaluated using ge
58  copies per milliliter or more, the times to virologic failure and the first adverse event were both
59 tical or behavioral interventions to prevent virologic failure and to stimulate complete recovery of
60 avirenz and nelfinavir, and they may predict virologic failure and/or emergence of drug-resistant vir
61        Fifty-four children (49%) experienced virologic failure, and 2 (2%) died.
62 f patients with genotype 1b infection, 1 had virologic failure, and 2 did not have data available at
63 nd 3TC mutations were detected frequently at virologic failure, and Nvp mutations were more common am
64                                           At virologic failure, antiretroviral resistance mutations w
65 0% of the women who had received placebo had virologic failure, as compared with 18.4% of those who h
66               In contrast, participants with virologic failure assigned EFV had more RT changes, incl
67 ase in CD4 cell count, and a smaller risk of virologic failure at 12 months for atazanavir compared w
68 ess or death, and 0.91 (95% CI, .84-.99) for virologic failure at 12 months.
69 s associated with 2.5 to 3 times the risk of virologic failure at either 95% or greater or less than
70 level data were used to estimate the risk of virologic failure based on a Prentice weighted case-coho
71 ter NRTI discontinuation among those without virologic failure but did increase 4-12 weeks before con
72 V alone, of whom 30 (88%) did not experience virologic failure by 48 weeks after simplification.
73 r PI-resistance mutations were identified at virologic failure by standard genotyping or SGS.
74 rimary end point for mothers and infants was virologic failure by the 6-month visit after initiation
75                                              Virologic failure by the 6-month visit occurred in signi
76  ART is significantly less likely to lead to virologic failure compared to NVP-based ART.
77 HLA class I alleles subsequently experienced virologic failure compared to those without protective a
78 ith detectable minority variants experienced virologic failure compared with 15% of those without min
79  with HIV-1 infection had increased rates of virologic failure, compared with efavirenz plus dual NRT
80            The primary end point was time to virologic failure (confirmed HIV-1 RNA level > or = 200
81  use of CCR5 antagonists even in the face of virologic failure could provide a relative degree of pro
82                               By TaqMan 2.0, virologic failure defined as HIV-1 RNA >/= 50 copies/mL
83 end point was the time from randomization to virologic failure (defined as a confirmed HIV-1 RNA leve
84 pared the cumulative incidence of subsequent virologic failure (defined as an HIV RNA viral load of >
85                                              Virologic failure, defined as a confirmed HIV-1 RNA leve
86 remained; however, VL monitoring and earlier virologic failure detection may result in lower NRTI res
87 une activation, indicating that a history of virologic failure does not inexorably lead to increased
88 s after NNRTI monotherapy and contributed to virologic failure during ART in 1/3 animals.
89 tly associated with higher-level resistance; virologic failure during the peginterferon/ribavirin-tre
90                                              Virologic failure during the telaprevir-treatment phase
91                                              Virologic failure during treatment and relapse after tre
92                              No patients had virologic failure during treatment, and no patients had
93                                              Virologic failure following EFV-containing treatment was
94                                              Virologic failure following treatment of hepatitis C vir
95         In the low HIV RNA stratum, times to virologic failure for ABC/3TC or TDF/FTC were not differ
96 IV-1) minority variants increase the risk of virologic failure for first-line nonnucleoside reverse t
97              The adjusted relative hazard of virologic failure for patients who started nevirapine, c
98                                  The risk of virologic failure for subjects with baseline NNRTI resis
99   Among the nevirapine-treated children with virologic failure for whom data on resistance were avail
100                  We studied 29 subjects with virologic failure from a phase IIb study of the CCR5 ant
101       Plasma samples at entry and at time of virologic failure from patients enrolled in the AIDS Cli
102 iral load suppression and time to subsequent virologic failure (&gt;400 copies/mL).
103 ns were associated with an increased risk of virologic failure (hazard ratio (HR], 2.3 [95% confidenc
104 ignificantly associated with shorter time to virologic failure (hazard ratio [HR], 2.03; P = .035), a
105 to whites, blacks had an increased hazard of virologic failure (hazard ratio [HR]; 1.7; 95% confidenc
106 t regimen (hazard ratio, 0.39) and the first virologic failure (hazard ratio, 0.34).
107 .48 to 1.06), as well as to delay the second virologic failure (hazard ratio, 0.56; 95 percent confid
108 9 copies/mL for 6 months doubled the risk of virologic failure (hazard ratio, 2.22; 95% CI, 1.60-3.09
109 cantly delayed both the first and the second virologic failures (hazard ratio for the first virologic
110           Computer alerts were generated for virologic failure (HIV RNA level >400 copies/mL after a
111 A testing of virus from the first episode of virologic failure identified protease resistance mutatio
112  of persistent LLV on the subsequent risk of virologic failure in a cohort of people living with HIV
113  (baseline) drug resistance and subtype with virologic failure in a multinational, randomized clinica
114 ignificantly less likely than NVP to lead to virologic failure in both trials (RR 0.85 [0.73-0.99] I(
115 nd levels of susceptibility after first-line virologic failure in individuals from Thailand, South Af
116 on with nevirapine was a strong predictor of virologic failure in our cohort, which was not explained
117 ion (Merck 035), but was not associated with virologic failure in patients receiving initial combinat
118  (1%) and was only associated with increased virologic failure in patients treated for short duration
119                                              Virologic failure in subtype C is characterized by high
120 sequencing were performed at baseline and at virologic failure in the 4 MK-5172 dosing arms.
121 d in two of these four animals, resulting in virologic failure in the animal with the highest level o
122 mutations were detected in participants with virologic failure in the EFV-TDF-FTC group.
123 ent adherence estimated the relative risk of virologic failure in the presence of NNRTI-resistant min
124 nts was associated with an increased risk of virologic failure in the setting of recent treatment adh
125 and V321A in 5% (17 of 353) of patients with virologic failure in the SOF studies.
126 dy was stopped because of increased rates of virologic failure in the VCV 25 mg/day arm (relative haz
127  to identify a significantly earlier time to virologic failure in women randomized to ATV/r compared
128          Three patients had D168 variants at virologic failure, including 2 with the D168A variant as
129 identify high-risk individuals and to detect virologic failure may limit the effectiveness of antiret
130  high rates of sustained virologic response, virologic failure may still occur, potentially leading t
131      Of 44 ART-experienced children, 57% had virologic failure, most never virologically suppressed.
132                                           No virologic failure occurred during the study.
133                                              Virologic failure occurred in 13 (33%) of 39 and relapse
134                                              Virologic failure occurred in 13 patients (4%), includin
135                                 On-treatment virologic failure occurred in 3 patients with HCV genoty
136                                              Virologic failure occurred in 34 patients (8%) overall.
137                                              Virologic failure occurred in 37 (28 in the nevirapine g
138                                              Virologic failure occurred in 97 (34%) subjects: 52 (37%
139                                              Virologic failure occurred in no patients in arm A and i
140                                              Virologic failure occurred uncommonly (6/266 [2.3%]) in
141 iciency virus-infected patients experiencing virologic failure of an indinavir- or ritonavir-containi
142 iation between detected minority DRM and the virologic failure of first-line antiretroviral therapy (
143                N348I emerges frequently with virologic failure of first-line ART in subtype C HIV-1 i
144  Y181C mutants more than tripled the risk of virologic failure of first-line efavirenz-based antiretr
145                 LLV has been associated with virologic failure of HAART in some studies, while in oth
146 resistant viruses from patients experiencing virologic failure of indinavir and/or nelfinavir.
147 ces in plasma obtained before therapy and at virologic failure of initial ART among 63 participants w
148 frequent occurrence of E138K/M184I after the virologic failure of rilpivirine-, lamivudine-, and emtr
149 ress viral replication even after short-term virologic failure of three-drug HAART and despite ongoin
150 erall, one-third of patients who experienced virologic failure on an indinavir-containing regimen sup
151 tonavir (LPV/r) monotherapy after first-line virologic failure on an NNRTI regimen.
152  emerged frequently in patients experiencing virologic failure on antiretroviral combinations that do
153 odeficiency virus (HIV) have higher rates of virologic failure on antiretroviral therapy (ART) and of
154 source-limited settings, genotype testing at virologic failure on first-line antiretroviral therapy (
155 n treatment-naive noncirrhotic patients with virologic failure on MK-5172 (100-800 mg/day) plus pegyl
156 eatment-experienced patients who experienced virologic failure on treatment regimens containing the C
157 .83]) and no difference in the likelihood of virologic failure or CD4 cell gain.
158  primary end point was the time to confirmed virologic failure or death.
159 iated with decreased adherence, but not with virologic failure or development of drug resistance in t
160  ritonavir-boosted lopinavir group (14%) had virologic failure or died.
161                    The primary end point was virologic failure or discontinuation of treatment by stu
162                    The primary end point was virologic failure or discontinuation of treatment by stu
163 e until initiation of ART and the time until virologic failure or initiation of ART were similar in t
164               Blips were not associated with virologic failure or the development of drug resistance.
165 l-determined change in regimen due to either virologic failure or treatment-related toxic effects.
166 pregnancy, elimination of food restrictions, virologic failure, or drug toxicities.
167 state of viral replication (P =.03), but not virologic failure over 4.5 years of observation.
168 ts, all pairwise comparisons of incidence of virologic failure over 96 weeks showed equivalence withi
169  group and 41.7% in the nevirapine group had virologic failure (P<0.001).
170 treatment CD8(+) T cell activation predicted virologic failure (P=.046).
171                        Patients experiencing virologic failure (persistent HIV RNA >500 copies RNA/mL
172                             During long-term virologic failure, plasma HIV RNA levels often remained
173 hort (51 with virologic failure, 144 without virologic failure), plus 127 of the remaining subjects w
174 cy virus (HIV)-infected women are at risk of virologic failure postpartum.
175                 The regimen with the highest virologic failure rate preserved greater future drug opt
176                         In the high stratum, virologic failure rate was significantly higher for ABC/
177                                 In contrast, virologic failure rates did not differ significantly bet
178 linded treatment in the high stratum, higher virologic failure rates were seen with ABC/3TC with EFV
179 t frequently observed resistance mutation at virologic failure regardless of the baseline minority va
180      The primary outcome measure was time to virologic failure, regardless of ART changes.
181              Primary endpoints were times to virologic failure, regimen modification, and safety even
182 45 patients without intermittent viremia had virologic failure (relative risk, 0.76; 95% confidence i
183       Genetic analyses strongly suggest that virologic failure resulted from the reemergence of virus
184                 Thirteen of these 23 (56.5%) virologic failures resuppressed after a median of 8.0 mo
185    In this analysis, blacks had a 40% higher virologic failure risk than whites that was not explaine
186 ex with 3 primary study endpoints of time to virologic failure, safety, and tolerability events were
187  given HIV RNA level measured 12 weeks after virologic failure, subsequent CD4+ T cell decline was sl
188 countries (LMICs) experience higher rates of virologic failure than adults.
189 ntiretroviral therapy show a shorter time to virologic failure than patients infected with wild-type
190 ation therapy were more likely to experience virologic failure than those who had taken amprenavir mo
191 e combined efavirenz groups (11 percent) had virologic failure; the time to virologic failure was sig
192                  Among 265 participants with virologic failure, those assigned atazanavir plus ritona
193 as performed at baseline and periodically in virologic failures throughout the 24-week posttherapy fo
194 mens, respectively, reached protocol-defined virologic failure; time to virologic failure was not sig
195  HCV genotype 1-infected patients with prior virologic failure to HCV DAA-containing therapy.
196 ith the detection of R155K/D168A in NS3 from virologic failures treated with simeprevir but not grazo
197 uld be the most reliable for predicting true virologic failure using DBS.
198                           Calendar trends in virologic failure (VF) among human immunodeficiency viru
199 vel (primary) and determination of confirmed virologic failure (VF) from longitudinal samples.
200 resistant variants have been associated with virologic failure (VF) of initial NVP-based combination
201                                              Virologic failure (VF) on a first-line ritonavir-boosted
202 avir/ritonavir (LPV/r) monotherapy following virologic failure (VF) on first-line human immunodeficie
203                                              Virologic failure (VF) was defined as confirmed rebound
204 ary endpoint: stopping randomized treatment, virologic failure (VF), or death by 6 months.
205 ime from randomization to death or confirmed virologic failure ([VF]) (plasma HIV RNA<1 log(10) below
206                          End points included virologic failure (viral load, >/= 400 copies/mL) and ad
207                        A clinical history of virologic failure was also not significantly associated
208                                              Virologic failure was associated most frequently with ef
209  significantly increased independent risk of virologic failure was associated with continuing a 3TC-c
210 f NNRTI and NRTI resistance after first-line virologic failure was associated with higher VL at study
211 finavir recipients, a trend toward decreased virologic failure was associated with the polymorphism C
212                          Increased hazard of virologic failure was associated with younger age, highe
213                                              Virologic failure was defined as 2 consecutive human imm
214                                              Virologic failure was defined as a plasma HIV RNA level
215                                              Virologic failure was defined as the first of 2 consecut
216                                              Virologic failure was documented in 22% of patients with
217                           Drug resistance at virologic failure was evaluated by standard genotyping a
218           A dose-dependent increased risk of virologic failure was found in participants with a highe
219 ents with genotype 1a infection, the rate of virologic failure was higher in the ribavirin-free group
220                                              Virologic failure was less likely in the efavirenz group
221 a median follow-up of 112 weeks, the time to virologic failure was longer in the efavirenz group than
222                                              Virologic failure was lower in the efavirenz + indinavir
223                            Increased risk of virologic failure was most strongly associated with mino
224 5 (32%) of those in the calls group; time to virologic failure was not different (P=.32).
225  protocol-defined virologic failure; time to virologic failure was not significantly different (hazar
226                    Over 3 years, the risk of virologic failure was not significantly different among
227 Cox proportional hazards model, the risk for virologic failure was not significantly greater in the A
228                                              Virologic failure was observed in 60% of cases and was a
229     Antiretroviral resistance at the time of virologic failure was rare but more frequent with ralteg
230 lanned subgroup analyses, increased risk for virologic failure was seen in non-Hispanic black patient
231 therapy was longer (P=0.05), and the time to virologic failure was shorter (P=0.05).
232 0 copies per milliliter or more, the time to virologic failure was significantly shorter in the abaca
233  percent) had virologic failure; the time to virologic failure was significantly shorter in the tripl
234          In the low HIV RNA stratum, time to virologic failure was similar for ABC/3TC vs TDF/FTC wit
235 or (NNRTI)-resistant variants on the risk of virologic failure, we reanalyzed a case-cohort substudy
236    Independent predictors of higher rates of virologic failure were <95% adherence, receiving the 4-d
237                    Hazard ratios for time to virologic failure were 1.13 (95% CI, 0.82 to 1.56) and 1
238 +) T-cell counts obtained after triple-class virologic failure were analyzed using generalized estima
239 RT sequences from participants with N348I at virologic failure were assayed for drug susceptibility.
240 IV-1 amino acid changes from pretreatment to virologic failure were evaluated in protease and reverse
241                                     Rates of virologic failure were higher without ribavirin than wit
242                           Five patients with virologic failure were in the MK-5172 100-mg arm, includ
243 y virus (HIV)-infected subjects experiencing virologic failure while receiving a ritonavir-containing
244 PI-naive patients designated as experiencing virologic failure while receiving ATV-containing regimen
245                                Due to higher virologic failure with ABC/3TC in the high HIV RNA strat
246 Women assigned to ATV/r had a higher risk of virologic failure with either nucleoside reverse transcr
247 ated with a dose-dependent increased risk of virologic failure with first-line ART.
248 al transmission of HIV-1 had higher rates of virologic failure with subsequent nevirapine-based antir
249 s) or 24 weeks (41 patients who had previous virologic failure with telaprevir or boceprevir plus peg
250 telaprevir-treated patients had on-treatment virologic failure, with no significant difference with o

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