ライフサイエンスコーパス: Rev response element

1 o an RNA stem-loop structure called the RRE (Rev response element).

2 tion with a highly structured RNA motif, the Rev response element.

3 the RNAi expression cassette relative to the Rev response element and the pol II expression cassette

4 nuclear export dynamics regulated by HIV-1's Rev response element and the viral Rev protein; transien

5 ing a combination RNA transport (CTE and Rev-Rev response element)-based packaging system.

6 that both mutants will form oligomers on the Rev response element, but have somewhat lower affinities

7 together with the structure of a Rev peptide-Rev response element complex, suggest that the carboxami

8 exation of Rev with a 40-mer fragment of the Rev response element containing the minimal element for

9 yeast, Rev can mediate the nuclear export of Rev response-element-containing RNAs.

10 human immunodeficiency virus type 1 (HIV-1) Rev response element high affinity binding site for Rev

11 the detected WFSs are coincident with known Rev response element in HIV-1 mRNA, iron-responsive elem

12 iruses that could substitute for Rev and the Rev response element in human immunodeficiency virus typ

13 is the viral protein Rev, which binds to the Rev response element in stem IIB located on unspliced vi

14 omain of Gag preferentially binds to psi and Rev Response elements in the viral genome, and GU-rich m

15 the stem-loop II sequences of the HIV type 1 Rev response element into ribozyme transcription cassett

16 odeficiency virus type 1 (HIV-1) Rev in RRE (Rev response element)-mediated gene expression and virus

17 The non-canonical regions in the unliganded Rev response element molecule narrow the major groove wi

18 geted oxidation of RNA stem loops from HIV-1 Rev Response Element mRNA (RRE RNA) and ribosomal 16S A-

19 shown that an RNA decoy (stem-loop II of the Rev response element of HIV type 1 [HIV-1], named SL2) a

20 on the trans-activation response element and Rev response element of HIV-1 mRNA, internal ribosome en

21 inatorial libraries that bind tightly to the Rev response element of HIV.

22 es that bind tightly and specifically to the Rev response element of HIV.

23 By targeting the Rev response element of human immunodeficiency virus typ

24 gene expression or that mediated by the Rev/Rev response element of human immunodeficiency virus typ

25 e transported to the cytoplasm by either Rev/Rev response element or the Mason-Pfizer monkey virus co

26 d the Rev NES when Rev is assembled onto the Rev response element RNA target and that Crm1, like Rev,

27 port factor to HIV-1 transcripts bearing the Rev response element RNA target, and thereby inducing th

28 nscription when tethered to the heterologous Rev response element RNA via the regulator of expression

29 and the human immunodeficiency virus type-I Rev response element RNA.

30 The viral Rev response element (RRE) adopts an "A"-like structure

31 gulator of expression of virion (Rev) to the Rev response element (RRE) and subsequent oligomerizatio

32 ted a different single point mutation in the Rev response element (RRE) at the bottom of stem-loop II

33 the selected variants showed changes in the Rev response element (RRE) but no changes in Rev.

34 expression of the viral proteins and the Rev-Rev response element (RRE) combination for expression of

35 In the case of the HIV-1 Rev-Rev response element (RRE) complex, the peptide forms a

36 HIV-1 Rev and the Rev response element (RRE) enable a critical step in the

37 The HIV-1 Rev response element (RRE) is a 351-base element in unsp

38 Oligomeric assembly of Rev on the Rev response element (RRE) is essential for the nuclear

39 target reactive metal chelates to the HIV-1 Rev response element (RRE) mRNA have been synthesized.

40 Unlike the Rev response element (RRE) of human immunodeficiency vir

41 (HIV-1) that binds to multiple sites in the Rev response element (RRE) of viral mRNA transcripts in

42 to express antisense RNA containing either a Rev response element (RRE) or a Mason-Pfizer monkey viru

43 gomerization of the HIV-1 protein Rev on the Rev Response Element (RRE) regulates nuclear export of g

44 enosines in the stem loop II region of HIV-1 Rev response element (RRE) RNA enhanced binding of HIV-1

45 nt for bacteriophage derivatives that encode Rev response element (RRE) RNA sequences, two examples o

46 osed of the Rev protein homooligomer and the Rev response element (RRE) RNA to mediate nuclear export

47 ency virus-1 Rev protein and its RNA target, Rev response element (RRE) RNA was determined in vitro u

48 1) Rev peptide bound to stem-loop IIB of the Rev response element (RRE) RNA was solved by nuclear mag

49 zed RNP by assembling a homo-oligomer on the Rev response element (RRE) RNA.

50 es the nuclear export of mRNA containing the Rev response element (RRE) through binding to the export

51 Rev protein routes viral RNAs containing the Rev Response Element (RRE) through the Crm1 nuclear expo

52 mino acid Rev protein acts by binding to the Rev response element (RRE), a complex RNA stem-loop stru

53 action between the viral Rev protein and the Rev response element (RRE), a structured element located

54 Multiple Rev subunits assemble on the Rev Response Element (RRE), a structured region present

55 ay mediated by the HIV-1 Rev protein and the Rev Response Element (RRE), and a CRM-1 independent path

56 hly structured element within viral RNA, the Rev response element (RRE), and escorts RRE-containing R

57 RNA target, stem-loop IIB (SLIIB) within the Rev Response element (RRE), mediates the export of singl

58 o intron-containing viral mRNAs encoding the Rev response element (RRE), thereby facilitating viral l

59 uman immunodeficiency virus (HIV) mRNAs, the Rev response element (RRE), to recruit the cellular nucl

60 These transcripts harbor the Rev Response Element (RRE), which orchestrates the inter

61 g genome encapsidation or, unexpectedly, the Rev response element (RRE), which regulates the nuclear

62 ined the ability of TAP to mediate export of Rev response element (RRE)-containing human immunodefici

63 or, as well as synergizes with, HIV-1 Rev in Rev response element (RRE)-mediated gene expression and

64 eins, by binding to and oligomerizing on the Rev Response Element (RRE).

65 here for the HIV-1 Rev association with the Rev Response Element (RRE).

66 target viral RNA sites, including the HIV-1 Rev response element (RRE).

67 d partially spliced HIV mRNAs containing the Rev response element (RRE).

68 inding zinc fingers that recognize the HIV-1 Rev response element (RRE).

69 oplasm of unspliced HIV-1 mRNAs carrying the Rev response element (RRE).

70 factory results from a set of tRNA, 5S rRNA, rev response elements (RRE) of HIV-1 and RRE of HIV-2/SI

71 ique RNA structure has been proposed for the Rev-response element (RRE) responsible for viral mRNA ex

72 The oligomerisation of Rev on the Rev-response element (RRE) was studied using a series of

73 for, as well as synergies with, HIV-1 Rev in Rev-response element (RRE)-mediated gene expression and

74 cing the natural RNA nuclear export element (Rev-response element [RRE]) used by HIV-1 and EIAV with

75 iral protein Rev and the RNA motifs known as Rev response elements (RREs) is required for transport o

76 The Rev response element structure observed here represents

77 rt element used by HIV gag-pol mRNA from the Rev response element to the constitutive transport eleme

78 e in vitro binding of these mutants to model Rev response elements, using improved gel mobility assay

79 inal repeats, gag-pol frameshift region, and Rev response element were strongly enhanced by NC.