ライフサイエンスコーパス: bacteriophage P22

1 is a close relative of the very well studied bacteriophage P22.

2 r of Salmonella enterica serovar Typhimurium bacteriophage P22.

3 bly intermediates of the double-stranded DNA bacteriophage P22.

4 , Pant and Pmnt, in the immunity I operon of bacteriophage P22.

5 mbly intermediates in Salmonella typhimurium bacteriophage P22.

6 Bacteriophage P22, a double-stranded DNA (dsDNA) virus,

7 In the case of bacteriophage P22, a model in which the scaffolding prot

8 d assembly that utilizes the coat protein of bacteriophage P22, a naturally occurring substrate of Gr

9 Bacteriophage P22, a podovirus infecting strains of Salm

10 Bacteriophage P22 Abc2 protein binds to the RecBCD enzym

11 ldtype homotrimeric tailspike protein of the bacteriophage P22 and its endorhamnosidase point mutant

12 In both bacteriophage P22 and the herpesviruses the extreme scaf

13 Arc-L1-Arc is a single-chain variant of bacteriophage P22 Arc repressor in which a 15 residue li

14 phage N15 Cro, bacteriophage lambda Cro, and bacteriophage P22 Arc) with related but divergent struct

15 The assembly intermediates of the Salmonella bacteriophage P22 are well defined but the molecular int

16 The Salmonella typhimurium bacteriophage P22 assembles an icosahedral capsid precur

17 The repressor protein of bacteriophage P22 binds to DNA as a homodimer.

18 acteriophage T7 tail protein gp11 and gp4 of bacteriophage P22, but TTPA contains an additional antip

19 ontainer based on the Salmonella typhimurium bacteriophage P22 capsid, genetically incorporating zico

20 In this study, we employed bacteriophage P22 challenge phages to determine which pr

21 The bacteriophage P22 coat protein has the common HK97-like

22 action sites of scaffolding protein with the bacteriophage P22 coat protein lattice, we have determin

23 o acid substitutions have been identified in bacteriophage P22 coat protein that are defective in fol

24 The I-domain is an insertion domain of the bacteriophage P22 coat protein that drives rapid folding

25 erature-sensitive-folding (tsf) phenotype to bacteriophage P22 coat protein.

26 Bacteriophage P22 contains 420 monomers of coat protein

27 eport the first accurate genome sequence for bacteriophage P22, correcting a 0.14% error rate in prev

28 ly directs lysogen formation for P22 R17 , a bacteriophage P22 derivative that carries the R17/MS2 RN

29 The scaffolding protein of bacteriophage P22 directs the assembly of an icosahedral

30 transcriptional antitermination protein N of bacteriophage P22, equipped with a luminescent DOTA[Tb(3

31 ural evidence that the portal protein of the bacteriophage P22 exists in two distinct dodecameric con

32 The Double-stranded DNA bacteriophage P22 has a ring-shaped dodecameric complex

33 Bacteriophage P22 has served as a model system for this

34 tral pH structure of three tail needles from bacteriophage P22, HK620, and Sf6.

35 igated determinants of polyhead formation in bacteriophage P22 in order to understand the molecular m

36 s are modified versions of the temperate DNA bacteriophage P22 in which post-transcriptional regulato

37 Bacteriophage P22 infects Salmonella enterica serovar Ty

38 To infect and replicate, bacteriophage P22 injects its 43 kbp genome across the c

39 Morphogenesis of bacteriophage P22 involves the packaging of double-stran

40 caffolding protein of Salmonella typhimurium bacteriophage P22 is a 33.6 kDa protein required both in

41 The Arc repressor of bacteriophage P22 is a dimeric member of the ribbon-heli

42 Arc repressor from bacteriophage P22 is a homodimeric member of the ribbon-

43 The tail of the bacteriophage P22 is composed of multiple protein compon

44 e DNA packaging machine (portal assembly) of bacteriophage P22 is constructed from 12 copies of a mul

45 in that is inserted into the coat protein of bacteriophage P22 is important in the process of proper

46 es have suggested that the portal protein of bacteriophage P22 is not essential for shell assembly; h

47 The dsDNA bacteriophage P22 is used as a model system to study the

48 haracterized the structure and regulation of bacteriophage P22 L-terminase (gp2).

49 In this work, we examine bacteriophage P22 morphogenesis by comparing three-dimen

50 In bacteriophage P22, only coat protein (gp5) and scaffoldi

51 The repressor of bacteriophage P22 (P22R) discriminates between its vario

52 cryomicroscopy to determine the structure of bacteriophage P22 portal protein in both the procapsid a

53 The assembly of bacteriophage P22 portal rings has been characterized in

54 Using 400-kV spot-scan images of the bacteriophage P22 procapsid, we have calculated an ampli

55 rangement of a mutant scaffolding within the bacteriophage P22 procapsid.

56 nstruction to obtain 15 A structures of both bacteriophage P22 procapsids and mature phage.

57 to study the three-dimensional structures of bacteriophage P22 procapsids containing wild-type and mu

58 Assembly of bacteriophage P22 procapsids has long served as a model

59 Assembly of the double-stranded DNA bacteriophage P22 procapsids requires the interaction of

60 Assembly of bacteriophage P22 procapsids requires the participation

61 The bacteriophage P22 R17 encodes a wild-type R17 operator s

62 ese methods to new cryoEM maps of the mature bacteriophage P22, reconstructed without imposing icosah

63 ion) accompanying DNA packaging in the dsDNA bacteriophage P22 represents an experimentally accessibl

64 Assembly of the bacteriophage P22 requires a 303 amino acid residue scaf

65 iometry and thermodynamics of binding of the bacteriophage P22 scaffolding protein within the procaps

66 Bacteriophage P22 scaffolding subunits are elongated mol

67 The bacteriophage P22 serves as a model for assembly of icos

68 Bacteriophage P22 serves as a model for the assembly and

69 ished calorimetric data of a closely related bacteriophage, P22, showed that capsid maturation was an

70 The trimeric bacteriophage P22 tailspike adhesin exhibits a domain in

71 esidue subunit of the Salmonella typhimurium bacteriophage P22 tailspike contains eight cysteine resi

72 found to have a structure homologous to the bacteriophage P22 tailspikes.

73 t evidence that su substitutions that rescue bacteriophage P22 temperature-sensitive-folding (tsf) co

74 NA challenge phages are modified versions of bacteriophage P22 that allow one to select directly for

75 RNA challenge phages are derivatives of bacteriophage P22 that enable direct genetic selection f

76 tudies of variants of the P(ant) promoter of bacteriophage P22, the Arc protein was found not only to

77 In bacteriophage P22, the association of scaffolding and co

78 great deal is known about the life cycle of bacteriophage P22, the mechanism of phage DNA transport

79 genase, sequestered within the capsid of the bacteriophage P22 through directed self-assembly.

80 y and helps to direct the temperate lambdoid bacteriophage P22 to the lysogenic developmental pathway

81 Mnt, a tetrameric repressor encoded by bacteriophage P22, uses N-domain dimers to contact each

82 stals confined inside genetically engineered bacteriophage P22 VLP using semiconducting CdS as a prot

83 were isolated and subjected to hydrolysis by bacteriophage P22, which contains endorhamnosidase activ

84 Viruses like bacteriophage P22, which have partially circularly permu

85 se exchanges detected in the packaged DNA of bacteriophage P22, which lacks a viral membrane.