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1 and consequently protected mice from murine CMV infection.
2 ltisystem autoimmunity and susceptibility to CMV infection.
3 crease in the risk of clinically significant CMV infection.
4 V infection in 1976 recipients free of prior CMV infection.
5 odel of CD8(+) T cell differentiation during CMV infection.
6 ere within ranges observed following natural CMV infection.
7 ors in the blood being a strong correlate of CMV infection.
8 ion occurring in human NK cells during human CMV infection.
9 on in vitro and in vivo in response to mouse CMV infection.
10 POT assay is able to predict protection from CMV infection.
11 ction, and during a persistent/latent murine CMV infection.
12 n of anti-CMV immunity or increased risk for CMV infection.
13 ess responses that are capable of inhibiting CMV infection.
14 of the plant, while not having any effect on CMV infection.
15 ated with premature rupture of membranes and CMV infection.
16 s the only small animal model for congenital CMV infection.
17 oint of this nested study was time to infant CMV infection.
18 e during immune maturation following primary CMV infection.
19 toxin as an effective compound that inhibits CMV infection.
20 of this immunoglobuline preparation against CMV infection.
21 ies using the guinea pig model of congenital CMV infection.
22 fe and promising approach against congenital CMV infection.
23 ment for ganciclovir-resistant or refractory CMV infection.
24 tem and may have a direct relevance to human CMV infection.
25 otential to suppress the indirect effects of CMV infection.
26 ation is at a particularly increased risk of CMV infection.
27 e critical during the early viremic phase of CMV infection.
28 AS-STING pathway in the initial detection of CMV infection.
29 l some of the direct and indirect effects of CMV infection.
30 elta2(neg) gammadelta T cells in controlling CMV infection.
31 ated in relation to treatment outcome during CMV infection.
32 Of 101,111 infants, 328 (0.3%) had postnatal CMV infection.
33 ntenance is disrupted by an episode of acute CMV infection.
34 li and more robust adaptive responses during CMV infection.
35 ent of maternal HIV infection, but not early CMV infection.
36 linical findings consistent with symptomatic CMV infection.
37 act of vaccination for preventing congenital CMV infection.
38 use pipeline to identify DNA consistent with CMV infection.
39 imated the true genetic diversity in primary CMV infection.
40 (Nos2) are susceptible to the related murine CMV infection.
41 hts into the virologic determinants of early CMV infection.
42 ansplant recipients and associated with late CMV infection.
43 such as death, graft rejection, bacterial or CMV infections.
44 34%) patients, and 17/41 discontinued due to CMV infections.
45 erapy in transplant patients with refractory CMV infections.
46 women including 57 primary and 23 nonprimary CMV infections.
47 ld be adopted to address the complexities of CMV infections.
48 "adaptive" responses after cytomegalovirus (CMV) infection.
49 ) is associated with latent cytomegalovirus (CMV) infection.
50 ctious exposures, including cytomegalovirus (CMV) infection.
54 mulative incidence of clinically significant CMV infection (35% vs 5%; P = .02; and 40% vs 12%; P = .
55 day CMI risk stratification better predicted CMV infection (81.3% vs 9.1%; OR, 43.33 [95% CI, 7.89-23
59 ATG dose was associated with a lower risk of CMV infection (adjusted hazard ratio [aHR]: 0.63; 95% co
61 ciated with CMV infection occurred in 4, and CMV infection adversely affected patient survival (P = 0
62 to the partial protection against postnatal CMV infection afforded by maternal antibodies, and they
63 (PC)-mediated epithelial cell entry decrease CMV infection after HCT, samples were analyzed from a ra
64 e also demonstrate that long-term control of CMV infection after HSCT is primarily mediated through t
68 The most significant risk for developing CMV infection after transplant depends upon donor (D) an
69 n the prevention of primary cytomegalovirus (CMV) infection after hematopoietic cell transplantation
72 strategies can be adopted to treat resistant CMV infections, albeit no randomized clinical trials exi
73 splant PCP and 3 variables: cytomegalovirus (CMV) infection, allograft rejection, and prophylaxis.
75 e used Cox regression to compare the risk of CMV infection and acute rejection (AR) among KT recipien
76 model was applied, with clinically relevant CMV infection and any CMV infection as time-dependent va
77 model was applied, with clinically relevant CMV infection and any CMV infection as time-dependent va
78 significant association was observed between CMV infection and CAV, except for patients who experienc
79 significant association was observed between CMV infection and CAV, except for patients who experienc
80 m was to investigate the association between CMV infection and disease and severe HCV recurrence (com
81 outcomes in clinical trials, definitions of CMV infection and disease were developed and most recent
84 may help bridge the gap in understanding how CMV infection and immunity are linked to increased cardi
85 nt(-); D(+)R(-)) are at high risk for active CMV infection and increased mortality; however, the immu
87 s the only small animal model for congenital CMV infection and recapitulates disease symptoms (e.g.,
88 As the virus genetic diversity in primary CMV infection and the changes over time remain incomplet
90 CD8(+) T cell repertoires following neonatal CMV infection and thus have important implications for t
91 s to analyze risk factors for posttransplant CMV infection and to assess the efficacy and validity of
92 sults suggest new approaches both to curtail CMV infection and to purge the virus from organ transpla
93 among the first immune cells that respond to CMV infection and use germ line-encoded NK cell receptor
94 l models of viral dynamics upon initial oral CMV infection and validated them using clinical shedding
95 stinct assays, was higher in infants without CMV infection and was moderately associated with delayed
96 vir for both the prevention and treatment of CMV infections and disease in transplant recipients has
97 transplant recipients >=12 years old with RR CMV infections and plasma CMV deoxyribonucleic acid (DNA
98 on the association between cytomegalovirus (CMV) infection and cardiac allograft vasculopathy (CAV)
99 on the association between cytomegalovirus (CMV) infection and cardiac allograft vasculopathy (CAV)
101 es specific tools to combat cytomegalovirus (CMV) infection and helps illuminate a general path to ac
102 in patients with concurrent cytomegalovirus (CMV) infection and inflammatory bowel disease (IBD).
104 series of 4 lung transplant recipients with CMV-infection and treatment failure upon standard care d
106 The current FDA-approved treatments for CMV infection are intended to be virus specific, yet the
107 MV infection born to mothers with nonprimary CMV infection are similar to infants born after a primar
108 entified patients who were protected against CMV infection as long as they had no graft-versus-host d
112 ve study included patients diagnosed with GI-CMV infection at Siriraj Hospital (Bangkok, Thailand) du
113 n group) revealed prevalent cytomegalovirus (CMV) infection at diagnosis in childhood ALL, demonstrat
114 studies of such a vaccine against congenital CMV infection based on a virus with a targeted deletion
115 in the present study no difference in murine CMV infection between Ncr1(gfp/pfp) and wild-type (WT) m
116 ory abnormalities in infants with congenital CMV infection born to mothers with nonprimary CMV infect
117 r morbidities and accumulate in both HIV and CMV infections, both of which are associated with increa
118 novel cell-targeting antiviral that inhibits CMV infection by decreasing the synthesis of viral prote
119 PC-entry nAb titers (P = .07) and decreased CMV infection by PCR at viral load cutoffs of >=1000 and
120 ich are important for effectively inhibiting CMV infection by targeting the expression of immediate-e
121 e estimated the likelihood of transient oral CMV infections by comparing their observed frequency to
122 neonates were screened for cytomegalovirus (CMV) infection by polymerase chain reaction (PCR) at bir
123 isions made during the acute phase of murine CMV infection can alter the level of memory inflation by
124 how adaptive NK cells arising in response to CMV infection can escape MDSC-mediated suppression, and
125 on of ganR- and ganciclovir-sensitive (ganS) CMV infection can risk factors and outcomes attributable
132 vertant T cells in the context of persistent CMV infection, combined with lack of regulatory T cells,
133 leading to a higher risk of cytomegalovirus (CMV) infection compared with anti-interleukin 2 receptor
135 ulation significantly associated with latent CMV infection, confirming the findings in previous studi
140 previously shown that acute cytomegalovirus (CMV) infection disrupts the induction of transplantation
143 After primary maternal cytomegalovirus (CMV) infection during pregnancy, infants are at risk for
144 ents received maribavir for cytomegalovirus (CMV) infection failing conventional therapy (trial 202)
146 me-linked immunospot (ELISPOT) assay and for CMV infection from the period before transplantation to
147 SOT) recipients who control cytomegalovirus (CMV) infection from those who progress to CMV-disease (C
149 hy 51-year-old man from Iran who after acute CMV infection had an onset of progressive CMV disease th
150 ess, recent developments in the treatment of CMV infections have resulted in improved human health an
151 ified immunosuppression for graft rejection, CMV infection, higher dose of corticosteroids, or prolon
152 kidney recipients at high risk of developing CMV infection if not receiving T-cell-depleting antibodi
153 east 6 months posttransplant, and subsequent CMV infection in 1976 recipients free of prior CMV infec
154 8(+) T cells from acute/primary into chronic CMV infection in 23 (donor+/recipient-; D+R-) lung trans
155 or, was recently approved for prophylaxis of CMV infection in adult CMV-seropositive recipients of al
156 significantly higher prevalence of in utero CMV infection in ALL cases (n = 268) than healthy contro
157 hymocyte globulin may be important to reduce CMV infection in high-risk serostatus group (D+/R-).
159 romised status; however, data specific to GI-CMV infection in immunocompetent patients are comparativ
164 sible impact of viremia and risk factors for CMV infection in pediatric LT recipients managed with ga
167 e primary endpoint that was the incidence of CMV infection in the lung allograft within 18 months of
168 uggesting a role for inadequately controlled CMV infection in the pathogenesis of PHIV comorbidities
170 acy of maribavir for preemptive treatment of CMV infection in transplant recipients is not known.
171 nd safety of letermovir for the treatment of CMV infection in transplant recipients remain scarce.
172 effect could increase the risk of congenital CMV infections in populations where primary CMV infectio
173 r >=400 mg twice daily was active against RR CMV infections in transplant recipients; no new safety s
174 We explored the role of cytomegalovirus (CMV) infection in CD8 lymphocytosis and inflammation in
175 roved for the prevention of cytomegalovirus (CMV) infection in hematopoietic stem cell transplant pat
179 vir recently approved for the prophylaxis of CMV-infection in patients after hematopoietic stem cell
180 was well tolerated and effective in treating CMV-infections in lung transplant recipients failing on
181 DR3 sequence (CATWDGPYYKKLF) associated with CMV infection, in addition to 12 highly frequent public
182 V shedding events, which we termed transient CMV infections, in a prospective birth cohort of 30 high
183 in the context of a refractory or resistant CMV infection including asymptomatic CMV viremia (n = 3)
184 in the context of a refractory or resistant CMV infection including asymptomatic CMV viremia (n=3),
185 tic options for drug-resistant or refractory CMV infection, including maribavir, letermovir, and adop
186 cell functions in vivo, in a system of mouse CMV infection, indicated that licensing did not play a m
188 s the first study to suggest that congenital CMV infection is a risk factor for childhood ALL and is
197 cell hyporesponsive phenotype during murine CMV infection is tissue specific and not cell intrinsic.
203 ral-resistant or refractory cytomegalovirus (CMV) infection is challenging, and salvage therapies, fo
206 The immune response to cytomegalovirus (CMV) infection is highly complex, including humoral, cel
209 memory inflation, as seen for example after CMV infection, is the maintenance of expanded, functiona
210 hus, although most people eventually acquire CMV infection, it usually requires numerous exposures.
212 ute to the control of early cytomegalovirus (CMV) infection, leading to a multiphasic type I interfer
215 n immunocompromised individuals, and chronic CMV infection may exacerbate a myriad of inflammatory co
218 svirus infections including cytomegalovirus (CMV) infection may be particularly important for telomer
220 pically confirmed ganR-CMV (n = 37) and ganS-CMV infection (n = 109), matched by donor/recipient CMV
221 for patients who experienced a breakthrough CMV infection (n = 24) during prophylaxis (1.94 [1.11-3.
222 for patients who experienced a breakthrough CMV infection (n=24) during prophylaxis (1.94 [1.11- 3.4
224 espite the defect in maturation, upon murine CMV infection, NK cells from NKp46-Cre-Gata3(fl/fl) mice
228 CMV infections in populations where primary CMV infection occurs early in childhood but could be min
231 altered neurodevelopment that follows murine CMV infection of the developing brain and that a subset
233 nd VGCV prophylaxis, a significant effect of CMV infection on the risk of CAV was seen only among HTx
234 iclovir prophylaxis, a significant effect of CMV infection on the risk of CAV was seen only among HTx
236 lerance model to examine the impact of acute CMV infection on: (a) disruption of established transpla
242 ite antiviral treatment; (iv) CMV disease or CMV infection or risk factors, such as CMV-IgG-negative
243 ase, and patients with ganciclovir-resistant CMV infection or who are intolerant to antiviral therapy
245 s (P = .03), allograft rejection (P = .001), CMV infection (P = .001), and severe lymphopenia (P = .0
248 cell subsets in response to cytomegalovirus (CMV) infection, paralleling antigen-specific T cell diff
252 ransplant CMI developed significantly higher CMV infection rates than those deemed to be at low risk
254 s in preventive strategies, cytomegalovirus (CMV) infection remains a major complication in solid org
258 recipients of kidney transplants may predict CMV infection resolution and antiviral drug resistance.
259 T cell kinetics in peripheral blood predict CMV infection resolution and emergence of a mutant strai
261 he Tshipidi study in Botswana, we determined CMV infection status by 6 months of age and compared hos
263 e mixed efficacy in patients with refractory CMV infection suggesting that letermovir may be a useful
265 vely studied 27 D(+)R(-) LTRs during primary CMV infection to determine whether acute CD4(+) T cell p
278 During the follow-up, clinically relevant CMV infection was diagnosed in 96 (37%) patients and CAV
284 We hypothesized that early cytomegalovirus (CMV) infection was associated with increased hospitaliza
288 nts) with recurrent or ganciclovir-resistant CMV infection were recruited, and 13 of them were treate
290 who cleared, but later experienced recurrent CMV infection while on maribavir, 23 had available UL97
291 ibavir resistance in patients with recurrent CMV infection while on therapy, or no response to therap
292 lopment of therapeutics for cytomegalovirus (CMV) infections, while progressing, has not matched the
293 RTANCE Nucleolar biology is important during CMV infection with the nucleolar protein, with nucleolin
296 a response to treatment had a recurrence of CMV infection within 6 weeks after starting maribavir at
298 xis, a single ATG dose decreased the risk of CMV infection without increasing the risk of AR or compr