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1 al myocarditis, in particular of that due to mumps virus.
2 least two doses of a vaccine containing the mumps virus.
3 measuring serological responses to wild-type mumps virus.
4 d have reduced efficacy against heterologous mumps viruses.
5 copy of the genome of a Jeryl Lynn strain of mumps virus (15,384 nucleotides) was assembled from cDNA
8 nfluenza virus type 2 (PIV2), PIV3, PIV5, or mumps virus and determined the abundances of individual
11 mber of cellular genes compared to wild-type mumps virus and increases cell death in infected cells,
14 ished human pathogens such as measles virus, mumps virus, and the human parainfluenza viruses; highly
19 nfluenza virus (PIV) type 2, PIV3, PIV5, and mumps virus, as well as on the relative abundance of the
21 luate the antigenic relationship between bat mumps virus (BMV) and the JL5 vaccine strain of mumps vi
24 er paramyxoviruses in the genus Rubulavirus, mumps virus catalyzes the proteasomal degradation of cel
26 associated with the presence of antibody to mumps virus, data from the 1999-2004 National Health and
27 e-adjusted seroprevalence of IgG antibody to mumps virus during 1999-2004 was 90.0% (95% CI, 88.8%-91
29 of the L protein, did not prevent rescue of mumps virus, even though an amino acid alignment for the
32 me cDNA was demonstrated by amplification of mumps virus from transfected-cell cultures and by subseq
37 n enteroviruses/rhinoviruses, measles virus, mumps virus, Hepatitis A-E Virus, Chikungunya virus, den
39 ramyxovirus pathogens include measles virus, mumps virus, human respiratory syncytial virus, and the
41 n of immunoglobulin M-specific antibodies to mumps virus in acute-phase serum samples, the isolation
43 acute-phase serum samples, the isolation of mumps virus in cell culture, or by detection of the RNA
45 primers, indicating that the persistence of mumps virus in the myocardium may be related to the sele
46 tly assesses the neurovirulence potential of mumps viruses in humans and is robust and reproducible.
47 indered analysis of the neuropathogenesis of mumps virus infection and the identification of molecula
48 al fibroelastosis associated with persistent mumps virus infection by vaccination supports the notion
49 sed antibody levels that may protect against mumps virus infection for longer than previously assumed
50 r neuropathological and clinical outcomes of mumps virus infection of the neonatal rat brain demonstr
51 his report we show, for the first time, that mumps virus infection of the neonatal rat leads to devel
52 tly more participants were protected against mumps virus infection up to 1 year after vaccination (ie
58 pinal fluid (CSF) samples and in extracts of mumps virus isolates from patients with various clinical
60 hown that clinical isolate-based recombinant mumps viruses lacking expression of either the V protein
64 myxoviruses parainfluenza virus 5 (PIV5) and mumps virus, M-NP interaction also contributes to effici
65 virus, Nipah virus, varicella-zoster virus, mumps virus, measles virus, lyssavirus, herpes simplex v
67 ic and neurovirulent properties of wild-type mumps viruses, most national regulatory organizations re
69 Here we report that while PIV2, PIV5, and mumps virus (MuV) are sensitive to IFIT1, nonrubulavirus
75 otype F has been the predominant genotype of mumps virus (MuV) in the last 20 years in mainland China
77 unctional CD8+ T-cell response after natural mumps virus (MuV) infection that was not present after v
82 circulating and emerging strains.IMPORTANCE Mumps virus (MuV) is the causative agent of the highly i
83 nts of the MMR vaccine: measles virus (MeV), mumps virus (MuV) Jeryl Lynn (JL1) strain, and MuV JL2 s
91 with high phylogenetic relatedness to human mumps virus (MuV) was identified recently at the nucleic
95 luenza virus 3 (HPIV3), measles virus (MeV), mumps virus (MuV), and respiratory syncytial virus (RSV)
96 esults were obtained for the closely related mumps virus (MuV), except that MuV particles derived fro
97 RNA-mediated signaling; these are encoded by mumps virus (MuV), human parainfluenza virus 2 (hPIV2),
102 ps virus (BMV) and the JL5 vaccine strain of mumps virus (MuVJL5), we rescued a chimeric virus bearin
106 effective safety test with which to measure mumps virus neurovirulence has also hindered analysis of
110 mmunoglobulin G (IgG) antibody responses and mumps virus-neutralizing antibody responses (based on th
111 oteins of the paramyxoviruses measles virus, mumps virus, Newcastle disease virus, human parainfluenz
112 shown systemic efficacy: vaccinia, measles, mumps, viruses, Newcastle disease virus, and reovirus.
113 that interactions between this region of the mumps virus NP and its polymerase leads to exposure of t
115 together with support plasmids which express mumps virus NP, P, and L proteins under control of the T
116 vCSP (VK210, VK247 and P. vivax-like) to the mumps virus nucleocapsid protein to enhance immune respo
118 f the patient had laboratory confirmation of mumps virus or probable if they had clinical symptoms an
119 samples were seropositive for measles virus, mumps virus, or rubella virus antibodies, and there were
120 ast 50 amino acids of both measles virus and mumps virus P (measles virus P, 457 to 507; mumps virus
121 mumps virus P (measles virus P, 457 to 507; mumps virus P, 343 to 391) by themselves constitute the
124 important viruses, including measles virus, mumps virus, parainfluenza viruses, respiratory syncytia
126 STAT3 are independently targeted by a single mumps virus protein, called V, that assembles STAT-direc
127 mon respiratory viruses (HPIV-2, -3, and -4, mumps virus, respiratory syncytial virus, and influenza
128 scribe the generation of a novel recombinant mumps virus (rMuV) expressing HIV-1 Gag (rMuVgag) and me
129 re, we developed live attenuated recombinant mumps virus (rMuV)-based SARS-CoV-2 vaccine candidates u
132 predict genes for 12 viruses: measles virus, mumps virus, rubella virus, respiratory syncytial virus,
133 ype 6, varicellazoster virus, measles virus, mumps virus, rubella virus, the picornavirus group, infl
134 ble EIA kits were used to evaluate wild-type mumps virus serological responses in human serum samples
135 of sequence relationships, with examples for mumps virus SH gene cDNA and prion protein sequences.
138 A*26-Cw*12-B*38 was associated with both mumps virus-specific humoral (P=.007) and cell-mediated
140 ccine, a measles virus Edmonston and the two mumps virus strains [Jeryl Lynn 1 (JL1) and JL2] that ar
141 The study also allowed characterization of mumps virus strains from Argentina as part of a new subg
142 accine viruses, raising concern that certain mumps virus strains may escape vaccine-induced immunity.
145 and highly neurovirulent (88-1961 wild type) mumps virus strains were passaged in human neural cells
151 ue cytokine and oncogene evasion property of mumps virus that provides a molecular basis for its obse
153 interferon-activated STAT1 or STAT2 protein, mumps virus V protein is unique in its ability to also t
155 that a single amino acid substitution in the mumps virus V protein, E95D, results in defective STAT3
156 stigate genetic variation in live attenuated mumps virus vaccine by using both MAPREC and a platform
158 utralizing test) against both the Jeryl Lynn mumps virus vaccine strain (hereafter, the "vaccine stra
159 ples to neutralize the genotype A Jeryl Lynn mumps virus vaccine strain and a genotype G wild-type vi
160 potentially neurovirulent, live, attenuated mumps virus vaccines stems largely from the lack of an a
161 bserved in monkeys inoculated with wild type mumps virus versus vaccine strains, although differences
163 adoption of widespread vaccination programs, mumps virus was the leading cause of virus-induced centr
166 ublic health investigations with analysis of mumps virus whole genome sequences from 201 infected ind
167 iated N protein (N-RNA) for both measles and mumps viruses with proteins produced in a bacterial expr
168 lent cellular immune responses to measles or mumps viruses, with or without passive antibodies when i