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1 l some of the direct and indirect effects of CMV infection.
2 ction, and during a persistent/latent murine CMV infection.
3 elta2(neg) gammadelta T cells in controlling CMV infection.
4 ated in relation to treatment outcome during CMV infection.
5 Of 101,111 infants, 328 (0.3%) had postnatal CMV infection.
6 te-onset sequelae in asymptomatic congenital CMV infection.
7 n response to both transfected DNA and mouse CMV infection.
8 ine IL-10 was defined during extended murine CMV infection.
9 east milk is the primary source of postnatal CMV infection.
10 associated with increased odds of congenital CMV infection.
11 y regulator of ISG expression during primary CMV infection.
12 recisely, being ultimately at lower risk for CMV infection.
13 es should allow efficient protection against CMV infection.
14 in patients with asymptomatic or symptomatic CMV infection.
15 h significantly increased odds of congenital CMV infection.
16 pM92 and pUL92 share a conserved function in CMV infection.
17 dding in vivo in the rhesus macaque model of CMV infection.
18 Patients underwent weekly surveillance for CMV infection.
19 d in a cohort of pregnant women with primary CMV infection.
20 e response of B lymphocytes to primary human CMV infection.
21 l-time PCR assay for diagnosis of congenital CMV infection.
22 developing symptomatic disease after primary CMV infection.
23 cells treated with gB-GNP gain resistance to CMV infection.
24 n of anti-CMV immunity or increased risk for CMV infection.
25 ctivating and inhibitory KIRs in immunity to CMV infection.
26 ess responses that are capable of inhibiting CMV infection.
27 of the plant, while not having any effect on CMV infection.
28 l infection or disease subsequent to primary CMV infection.
29 ug and received preemptive treatment against CMV infection.
30 C1C1(+) iDCs was maintained independently of CMV infection.
31 ated with premature rupture of membranes and CMV infection.
32 s the only small animal model for congenital CMV infection.
33 oint of this nested study was time to infant CMV infection.
34 e during immune maturation following primary CMV infection.
35 toxin as an effective compound that inhibits CMV infection.
36 of this immunoglobuline preparation against CMV infection.
37 ies using the guinea pig model of congenital CMV infection.
38 fe and promising approach against congenital CMV infection.
39 ment for ganciclovir-resistant or refractory CMV infection.
40 tem and may have a direct relevance to human CMV infection.
41 otential to suppress the indirect effects of CMV infection.
42 ation is at a particularly increased risk of CMV infection.
43 e critical during the early viremic phase of CMV infection.
44 AS-STING pathway in the initial detection of CMV infection.
45 women including 57 primary and 23 nonprimary CMV infections.
46 jority of birth defects caused by congenital CMV infections.
47 tive subjects developed asymptomatic primary CMV infections.
48 erapy in transplant patients with refractory CMV infections.
49 who receive prophylaxis for cytomegalovirus (CMV) infection.
50 the diagnosis of congenital cytomegalovirus (CMV) infection.
51 ) is associated with latent cytomegalovirus (CMV) infection.
56 ciated with CMV infection occurred in 4, and CMV infection adversely affected patient survival (P = 0
57 e also demonstrate that long-term control of CMV infection after HSCT is primarily mediated through t
63 strategies can be adopted to treat resistant CMV infections, albeit no randomized clinical trials exi
66 ntly the only tool for assessing the risk of CMV infection, although cellular immune responses driven
68 m was to investigate the association between CMV infection and disease and severe HCV recurrence (com
70 outcomes in clinical trials, definitions of CMV infection and disease were developed and most recent
72 To determine the contribution of pp65 to CMV infection and immunity, we generated a rhesus CMV la
74 ecipient-; D+R-) are at high-risk for active CMV infection and increased mortality, however the immun
75 nt(-); D(+)R(-)) are at high risk for active CMV infection and increased mortality; however, the immu
78 s the only small animal model for congenital CMV infection and recapitulates disease symptoms (e.g.,
79 r saliva specimens for diagnosing congenital CMV infection and saliva specimens are easier to collect
80 lated to a functional contribution of KIR in CMV infection and should be investigated in hematopoieti
82 At present, a vaccine is not available for CMV infection and the available antiviral drugs suffer f
83 CD8(+) T cell repertoires following neonatal CMV infection and thus have important implications for t
84 s to analyze risk factors for posttransplant CMV infection and to assess the efficacy and validity of
85 sults suggest new approaches both to curtail CMV infection and to purge the virus from organ transpla
86 l models of viral dynamics upon initial oral CMV infection and validated them using clinical shedding
87 t viremia, but significantly more late-onset CMV infections and side effects (leukopenia and neutrope
89 ed for associations between cytomegalovirus (CMV) infection and clinical and pathological markers of
90 ell repertoire during human cytomegalovirus (CMV) infection and demonstrate that primary co-infection
92 in patients with concurrent cytomegalovirus (CMV) infection and inflammatory bowel disease (IBD).
93 The relationship between cytomegalovirus (CMV) infection and mortality among immunocompetent indiv
94 ociation between congenital cytomegalovirus (CMV) infection and sensorineural hearing loss (SNHL) was
95 ve hearing losses occur following congenital CMV infection, and CMV-infected infants should be evalua
96 T-cell immunity is critical for control of CMV infection, and correction of the immune deficiency i
97 ipient origin, can protect against recurrent CMV infections, and significantly influence the chimeris
99 n older humans and both aging and persistent CMV infection are independent factors in this process.
100 The current FDA-approved treatments for CMV infection are intended to be virus specific, yet the
101 f adverse outcome in asymptomatic congenital CMV infection are not known, and it is important that fu
103 entified patients who were protected against CMV infection as long as they had no graft-versus-host d
106 fants, the cumulative incidence of postnatal CMV infection at 12 weeks was 6.9% (95% CI, 4.2%-9.2%);
107 A total of 124 pregnant women with primary CMV infection at 5 to 26 weeks of gestation were randoml
110 antiviral strategy that specifically blocks CMV infection at multiple stages of virus life cycle, bu
111 n group) revealed prevalent cytomegalovirus (CMV) infection at diagnosis in childhood ALL, demonstrat
112 studies of such a vaccine against congenital CMV infection based on a virus with a targeted deletion
113 in the present study no difference in murine CMV infection between Ncr1(gfp/pfp) and wild-type (WT) m
115 -three newborns with congenital asymptomatic CMV infection born to women with primary CMV infection d
116 novel cell-targeting antiviral that inhibits CMV infection by decreasing the synthesis of viral prote
117 ich are important for effectively inhibiting CMV infection by targeting the expression of immediate-e
118 e estimated the likelihood of transient oral CMV infections by comparing their observed frequency to
119 how adaptive NK cells arising in response to CMV infection can escape MDSC-mediated suppression, and
120 on of ganR- and ganciclovir-sensitive (ganS) CMV infection can risk factors and outcomes attributable
124 vertant T cells in the context of persistent CMV infection, combined with lack of regulatory T cells,
126 persistent clonal B cell expansions, whereas CMV infection correlates with the proportion of highly m
129 .2%); 5 of 29 infants (17.2%) with postnatal CMV infection developed symptomatic disease or died.
131 ere independently associated with late-onset CMV infection/disease (hazard ratio, 4.04 [95% confidenc
132 irus (CMV) infection/disease (i.e., incident CMV infection/disease after cessation of prophylactic an
134 on may be at an increased risk of late-onset CMV infection/disease and should be considered for more
135 other potential risk factors for late-onset CMV infection/disease in kidney transplant recipients.
139 risk factor for late-onset cytomegalovirus (CMV) infection/disease (i.e., incident CMV infection/dis
141 ay be available to prevent or treat maternal CMV infection during pregnancy, especially for women wit
145 l-to-fetal rates of primary cytomegalovirus (CMV) infection during pregnancy have been between 30% an
148 revention, diagnosis and treatment of active CMV infection enhance transplant outcomes, and are the f
151 me-linked immunospot (ELISPOT) assay and for CMV infection from the period before transplantation to
152 SOT) recipients who control cytomegalovirus (CMV) infection from those who progress to CMV-disease (C
153 lantation, in which the beneficial impact of CMV infection has been reported on the graft-versus-leuk
155 The vast majority of infants with congenital CMV infection have no clinical findings at birth (asympt
158 of CMV disease and treatment outcomes during CMV infection in 291 solid organ transplant recipients r
159 r increased attention to screening of active CMV infection in advanced HIV patients in developing cou
160 significantly higher prevalence of in utero CMV infection in ALL cases (n = 268) than healthy contro
161 dies reported low CD4(+) T-cell responses to CMV infection in early life, contrasting with large resp
162 hymocyte globulin may be important to reduce CMV infection in high-risk serostatus group (D+/R-).
167 sible impact of viremia and risk factors for CMV infection in pediatric LT recipients managed with ga
168 , was effective in reducing the incidence of CMV infection in recipients of allogeneic hematopoietic-
176 s (CMV) load is central to the management of CMV infections in immunocompromised patients, but quanti
177 We explored the role of cytomegalovirus (CMV) infection in CD8 lymphocytosis and inflammation in
178 erge rapidly during primary cytomegalovirus (CMV) infection in humans, they exhibit a state of prolon
179 rphisms on the incidence of cytomegalovirus (CMV) infection in solid-organ transplant recipients.
182 aid to clinical features of cytomegalovirus (CMV) infections in individuals without human immunodefic
183 V shedding events, which we termed transient CMV infections, in a prospective birth cohort of 30 high
184 ns was linked to transfusion, resulting in a CMV infection incidence of 0.0% (95% CI, 0.0%-0.3%) per
185 respiratory status associated with postnatal CMV infection included a new requirement for vasopressor
187 cell functions in vivo, in a system of mouse CMV infection, indicated that licensing did not play a m
191 s the first study to suggest that congenital CMV infection is a risk factor for childhood ALL and is
203 cell hyporesponsive phenotype during murine CMV infection is tissue specific and not cell intrinsic.
212 ral-resistant or refractory cytomegalovirus (CMV) infection is challenging, and salvage therapies, fo
213 The immune response to cytomegalovirus (CMV) infection is highly complex, including humoral, cel
218 memory inflation, as seen for example after CMV infection, is the maintenance of expanded, functiona
219 hus, although most people eventually acquire CMV infection, it usually requires numerous exposures.
220 ute to the control of early cytomegalovirus (CMV) infection, leading to a multiphasic type I interfer
222 This prompted us to investigate whether CMV infection limits immunologic space at sites where im
224 n immunocompromised individuals, and chronic CMV infection may exacerbate a myriad of inflammatory co
225 ls in solid organ transplant recipients with CMV infection may reflect vascular inflammation and is a
227 svirus infections including cytomegalovirus (CMV) infection may be particularly important for telomer
229 pically confirmed ganR-CMV (n = 37) and ganS-CMV infection (n = 109), matched by donor/recipient CMV
231 espite the defect in maturation, upon murine CMV infection, NK cells from NKp46-Cre-Gata3(fl/fl) mice
236 altered neurodevelopment that follows murine CMV infection of the developing brain and that a subset
239 g evidence of the effect of cytomegalovirus (CMV) infection on survival and the risk of cancer after
241 ite antiviral treatment; (iv) CMV disease or CMV infection or risk factors, such as CMV-IgG-negative
242 ase, and patients with ganciclovir-resistant CMV infection or who are intolerant to antiviral therapy
247 cell subsets in response to cytomegalovirus (CMV) infection, paralleling antigen-specific T cell diff
254 recipients of kidney transplants may predict CMV infection resolution and antiviral drug resistance.
255 T cell kinetics in peripheral blood predict CMV infection resolution and emergence of a mutant strai
257 or treatment of mice with poly(I:C) or mouse CMV infection resulted in increased Ly49A expression and
259 mune globulin to pregnant women with primary CMV infection significantly reduced the rate of intraute
261 ide a major defense against cytomegalovirus (CMV) infection through the interaction of their surface
263 vely studied 27 D(+)R(-) LTRs during primary CMV infection to determine whether acute CD4(+) T cell p
264 ectively studied 23 D+R- LTRs during primary CMV infection to determine whether acute CD8(+) T cell p
265 , we used the rhesus macaque animal model of CMV infection to investigate the in vivo function of the
266 ) pretransplant predicted the development of CMV infection under the immunosuppressive regime after t
284 57.5% (n = 310) of the infants; none of the CMV infections was linked to transfusion, resulting in a
285 rhesus macaques as a model of primary human CMV infection, we examined the virologic and immunologic
287 fetal CD8(+) and CD4(+) T-cell responses to CMV infection were compared to those of adults with prim
288 ocompetent patients with primary symptomatic CMV infection were genotyped for KIR and their HLA ligan
289 olid-organ transplant recipients at risk for CMV infection were included, among whom 373 (44%) receiv
290 eropositive patients at intermediate risk of CMV infection were investigated, according to current al
292 can American race, acute graft rejection and CMV infection were significantly associated with the dev
294 e T-cell counts, known to be associated with CMV infection, were measured before transplantation and
296 mmature LC (iLC) are remarkably resistant to CMV infection, while mature LC (mLC) are more permissive
297 in predicting which children with congenital CMV infection will develop hearing loss and, among those
299 RTANCE Nucleolar biology is important during CMV infection with the nucleolar protein, with nucleolin
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