ライフサイエンスコーパス: Flock House virus

1 capsidated genome of a eukaryotic RNA virus, flock house virus.

2 particles (VLPs) derived from the capsid of Flock House virus.

3 50S and 70S ribosome particles and the 9-MDa Flock House virus.

4 arly causes hypersensitivity to infection by flock house virus.

5 d proteolysis to examine the viral capsid of flock house virus.

6 ntact, purified particles of the nodaviruses flock house virus and nodamura virus that were either tr

7 the insect plus-strand RNA [(+)RNA] viruses Flock House virus and Nodamura virus; and the double-str

8 ila C virus or by two unrelated RNA viruses, Flock House virus and Sindbis virus.

9 RNA viruses of plants (this study), animals (flock house virus), and humans (poliovirus).

10 Using Flock House virus as a model system, we developed a next

11 Nodamura virus (NoV) and Flock House virus (FHV) are members of the family Nodavi

12 cribed here, we have demonstrated the use of flock house virus (FHV) as a model system for virus infe

13 Using Flock House virus (FHV) as a model system, we identified

14 f RNA replication to amplify mRNAs, by using flock house virus (FHV) as a model system.

15 Here we show complete replication of the Flock house virus (FHV) bipartite, plus-strand RNA genom

16 f the capsid protein cleavage product of the flock house virus (FHV) consists of 21 residues and form

17 vitro studies to understand the mechanism of Flock House virus (FHV) entry and membrane penetration.

18 from Drosophila cells latently infected with Flock House Virus (FHV) failed to reveal signatures of b

19 The nodavirus Flock house virus (FHV) has a bipartite, positive-sense

20 The nodavirus flock house virus (FHV) has a bipartite, positive-sense,

21 lso after cricket paralysis virus (CrPV) and flock house virus (FHV) infection.

22 Flock house virus (FHV) is a bipartite, positive-strand

23 Flock House virus (FHV) is a model system for non-envelo

24 Flock House virus (FHV) is a positive-sense RNA insect v

25 The alphanodavirus flock house virus (FHV) is a positive-strand RNA virus w

26 Flock house virus (FHV) is a small icosahedral insect vi

27 Flock House virus (FHV) is an attractive model for the s

28 Here, we show that flock house virus (FHV) is both an initiator and a targe

29 Flock house virus (FHV) is the best-characterized member

30 Flock house virus (FHV) is the most extensively studied

31 To date, the insect nodavirus flock house virus (FHV) is the only virus of a higher eu

32 e RNA replication protein A of the nodavirus flock house virus (FHV) recruits FHV genomic RNA1 to a m

33 red Drosophila melanogaster cells suppresses Flock House virus (FHV) replication and the accumulation

34 The infectivity of flock house virus (FHV) requires autocatalytic maturatio

35 complex activity is essential for efficient Flock House virus (FHV) RNA replication in Drosophila me

36 ction in yeast by retargeting protein A, the Flock House virus (FHV) RNA-dependent RNA polymerase.

37 Replication of flock house virus (FHV) RNA1 and production of subgenomi

38 -read nanopore sequencing data acquired from Flock House virus (FHV) serially passaged in vitro.

39 opic expression of the B2 protein encoded by Flock House virus (FHV) suppresses RNAi induced by eithe

40 In the case of the nodavirus Flock House virus (FHV), a bipartite positive-strand RNA

41 Flock house virus (FHV), a bipartite RNA virus of insect

42 Flock house virus (FHV), a positive-strand RNA animal vi

43 Flock house virus (FHV), a single-stranded RNA insect vi

44 Flock House virus (FHV), a small RNA virus of the family

45 ast YDJ1 gene facilitates RNA replication of flock house virus (FHV), a well-studied and versatile po

46 lication complex assembly and function using Flock House virus (FHV), an alphanodavirus whose RNA-dep

47 ere that, in contrast to robust infection by Flock house virus (FHV), infection with an FHV mutant (F

48 Here we show that flock house virus (FHV), one of the simplest RNA viruses

49 Replication complexes of flock house virus (FHV), the best-studied alphanodavirus

50 For the nodavirus flock house virus (FHV), we recently showed that multifu

51 embly we use the established model system of Flock House virus (FHV), which assembles its replication

52 fied nonenveloped single-stranded RNA virus, flock house virus (FHV).

53 with the "gamma" peptide of the insect virus Flock House virus (FHV).

54 ction of Drosophila cells with the nodavirus Flock House virus (FHV).

55 from that described for the insect nodavirus Flock House virus (FHV).

56 Flock House virus (FHV; Nodaviridae) is a positive-stran

57 pathogenic to humans (Poliovirus), insects (Flock house virus [FHV]), and plants (Brome mosaic virus

58 The Flock House virus genome consists of two separate RNA mo

59 identified the RNA sequences contributing to Flock House virus genome heterodimerization and discover

60 ridine, inactivated three different viruses, flock house virus, human rhinovirus-14, and foot and mou

61 suppression of antiviral RNAi by the related Flock house virus in fruit flies and nematodes and revea

62 Induced expression of the Flock House virus in the soma of C. elegans results in t

63 tem consisting of mitochondria isolated from Flock House virus-infected Drosophila cells for use in b

64 Flock House virus is a small icosahedral insect virus of

65 The capsid of flock house virus is composed of 180 copies of a single

66 humans (e.g., poliovirus) and animals (e.g., Flock House virus), is functionally coupled to replicati

67 tranded DNA bacteriophage HK97 and synthetic Flock House virus-like particles (sFHV).

68 ruses expressing the RNAi suppressor B2 from Flock House virus or Aedes aegypti dicer-2 (Aedicer-2) u

69 data suggest that spherules generated during Flock House virus replication are dynamic, protect doubl

70 yet to be determined, but B2 of the related Flock House virus suppresses RNA interference both in Dr

71 and 26% identity with homologous proteins of Flock house virus, the best characterized of the alphano

72 ion of recombination events in the genome of flock house virus, we demonstrate that this information