ライフサイエンスコーパス: rubella virus

1 our knowledge, the first known relatives of rubella virus.

2 erovirus D68, coxsackievirus A16 and A24 and rubella virus.

3 ndividual differences in humoral immunity to rubella virus.

4 share an identical genomic architecture with rubella virus(2,3).

5 Rubella is an acute illness caused by rubella virus and characterised by fever and rash.

6 Due to the significant teratogenicity of rubella virus and the use of a live-attentuated vaccine,

7 y responses to anti-MMR (measles, mumps, and rubella virus) and anti-DTP (anti-diphtheria, tetanus, a

8 including Zika virus, human cytomegalovirus, rubella virus, and Listeria monocytogenes.

9 opositive for measles virus, mumps virus, or rubella virus antibodies, and there were no significant

10 25-50% of people infected with rubella virus are asymptomatic.

11 ere tested for IgG antibodies to measles and rubella viruses by enzyme immunoassay.

12 ation and rescue of diverse mutations by the rubella virus C protein is proposed.

13 The rubella virus capsid protein (C) has been shown to compl

14 rveillance system have documented widespread rubella virus circulation in many different countries in

15 Elimination of endemic rubella virus circulation in the United States was decla

16 Among specific types of infection, rubella virus, coxsackievirus, respiratory infections, a

17 e acronym 'TORCH' (Toxoplasma gondii, other, rubella virus, cytomegalovirus, herpes simplex virus) re

18 To study the molecular epidemiology of rubella virus during endemic transmission, phylogenetic

19 Rubella virus encodes a nonstructural polyprotein with R

20 astewater monitoring for measles, mumps, and rubella viruses for population-level surveillance.

21 o bind to and promote the replication of the rubella virus genome in mammalian cells.

22 Rubella virus genomic RNA contains a 5' stem-loop (5'(+)

23 The ectodomains of the rubella virus glycoproteins, E1 and E2, are shown to be

24 c transmission of poliovirus and measles and rubella viruses has been eliminated in the United States

25 e post-fusion state predicts that ruhugu and rubella viruses have a similar capacity for fusion with

26 type 1, cytomegalovirus, Toxoplasma gondii, rubella virus, human parvovirus B19, Chlamydia trachomat

27 ed these specimens for anti-measles and anti-rubella virus IgG antibodies using indirect enzyme immun

28 B1*03-DPB1*03 was associated with both lower rubella virus IgG antibody levels (P=.02) and higher rub

29 100.0% and 99.6%, respectively, showed anti-rubella virus immunoglobulin G (IgG) seroprotection.

30 The investigators performed rubella virus immunohistochemistry and PCR and T-cell mi

31 is the first to show persistent intraocular rubella virus in a 28-year-old man with congenital rubel

32 There is growing evidence for the role of rubella virus in Fuchs' uveitis syndrome (FUS).

33 n of endemic transmission of the measles and rubella viruses in the Americas.

34 Rubella virus-induced granulomas have been described in

35 Vaccination with live attenuated rubella virus induces a strong immune response in most i

36 ubella is a clinically mild illness, primary rubella virus infection in early pregnancy can result in

37 Rubella virus infection is typically diagnosed by the id

38 microglia model, we further demonstrate that rubella virus infection leads to a profound interferon r

39 y can be expected to provide protection from rubella virus infection.

40 Rubella virus is an important human pathogen that can ca

41 nzyme-linked immunosorbent assay (ELISA) for rubella virus is described.

42 veillance--the panel unanimously agreed that rubella virus is no longer endemic in the United States.

43 Rubella virus is the only member of the Rubivirus genus

44 Rubella virus is transmitted through respiratory droplet

45 E1 gene nucleotide sequences of 63 rubella virus isolates from North America, Europe, and A

46 e residues that coordinate ADP-ribose in the rubella virus macrodomain are most similar to those of m

47 Isothermal calorimetry shows that the rubella virus macrodomain binds ADP-ribose in solution.

48 Enzyme assays show that the rubella virus macrodomain can hydrolyze both mono- and p

49 gins of the disease and its causative agent, rubella virus (Matonaviridae: Rubivirus), have remained

50 The region of the rubella virus nonstructural open reading frame that cont

51 n crystal structures of the macrodomain from rubella virus nonstructural protein p150, with and witho

52 We also show that the rubella virus nucleocapsid structure often forms a rough

53 Rubella viruses of genotypes 1E and 2B are currently the

54 us (P=.09) but low levels of IgG antibody to rubella virus (P=.02), whereas DRB1*04-DQB1*03-DPB1*03 w

55 f autoantigen La interaction with RV RNA for rubella virus pathology and vaccine associated adverse r

56 We show that in human brain slices, rubella virus predominantly infects microglia.

57 ntial barriers between host species and that rubella virus probably has a zoonotic origin.

58 ement and rescue in Cdelta8-Vero cells since rubella virus replication occurs in the cytoplasm.

59 for 12 viruses: measles virus, mumps virus, rubella virus, respiratory syncytial virus, alphavirus a

60 uids was compared with the ability to detect rubella virus RNA in oral fluids by reverse transcriptio

61 including interaction with and regulation of rubella virus RNA processing.

62 of concept for a novel diagnostic assay for rubella virus (RUB) based on RUB replicons expressing re

63 The 5' end of the genomic RNA of rubella virus (RUB) contains a 14-nucleotide (nt) single

64 less, in this study, we found that the SP of rubella virus (RUB) could enhance expression of reporter

65 the 3'-terminal 305 nucleotides (nt) of the rubella virus (RUB) genome, a region conserved in all RU

66 , Robo102, which contains a cDNA copy of the rubella virus (RUB) genomic RNA from which infectious tr

67 Rubella virus (RUB) is a small plus-strand RNA virus cla

68 The rubella virus (RUB) nonstructural (NS) protease is a pap

69 The rubella virus (RUB) nonstructural (NS) protein (NSP) ORF

70 The rubella virus (RUB) nonstructural protein (NS) open read

71 A rubella virus (RUB) replicon, RUBrep/PAC, was constructe

72 Rubella virus (RUB) replicons with an in-frame deletion

73 Rubella virus (RUB), the sole member of the Rubivirus ge

74 The rubella virus (RUBV) capsid (C) protein rescues mutants

75 ldren since laboratory markers of congenital rubella virus (RUBV) infection do not persist beyond age

76 The rubella virus (RUBV) nonstructural (NS) protease domain,

77 Rubella virus (RUBV), a positive-strand RNA virus, repli

78 Rubella virus (RUBV), a rubivirus, is an airborne human

79 Immunodeficiency-related, vaccine-derived rubella virus (RuV) as an antigenic trigger of cutaneous

80 Vaccine-derived and wild-type rubella virus (RuV) has been identified within granuloma

81 Rubella virus (RuV) is a recognized causative agent for

82 was previously comprised of a single member, Rubella virus (RuV), which is spread by airborne or mate

83 Rubella virus (RV) infections in adult women can be asso

84 Rubella virus (RV) is a leading cause of birth defects d

85 Immunity to rubella virus (RV) is commonly determined by measuring s

86 A systematic nomenclature for rubella viruses (RVs) based on 13 genotypes has been est

87 e oral fluid specimens were shown to contain rubella virus sequences of genotype 1C.

88 limit of the ELISA was approximately 7 IU of rubella virus-specific IgG per ml of serum sample.

89 lts of those two assays were compared to the rubella virus-specific IgG result obtained by a commerci

90 results of the ELISA (Behring Enzygnost) for rubella virus-specific IgG with corresponding serum samp

91 ed on the day of rash onset are negative for rubella virus-specific IgM.

92 typically diagnosed by the identification of rubella virus-specific immunoglobulin M (IgM) antibodies

93 virus IgG antibody levels (P=.02) and higher rubella virus-specific lymphoproliferation (P=.002).

94 leotide polymorphisms (SNPs) associated with rubella virus-specific neutralizing antibodies.

95 bly pathway, leads to an organization of the rubella virus structural proteins that is different from

96 llazoster virus, measles virus, mumps virus, rubella virus, the picornavirus group, influenza A virus

97 ment: cytomegalovirus, herpes simplex virus, rubella virus, Toxoplasma gondii, and Zika virus.

98 data from the period 2003-2008 indicate that rubella virus transmission has occurred across wide age

99 Since 1969, several rubella virus vaccines have been licensed for use; howev

100 ation between granulomas and vaccine-derived rubella virus (VDRV) in people with primary immunodefici

101 Rubella virus was demonstrated in all 12 accessible biop

102 Intense interest since rubella virus was first isolated in 1962 has advanced ou

103 he whole genomic characterization of Chinese rubella viruses was clarified.

104 hugu virus, which is the closest relative of rubella virus, was found in apparently healthy cyclops l

105 wastewater monitoring of measles, mumps, and rubella viruses, we developed and validated a multiplexe

106 The results indicated that the Chinese rubella viruses were highly conserved at the genomic lev

107 ults indicate that the assembly mechanism of rubella virus, which has previously been shown to differ

108 interruption of transmission of measles and rubella viruses will be an essential criterion for verif

109 tly, a systematic nomenclature for wild-type rubella viruses (wtRVs) was established, wtRVs circulati