ライフサイエンスコーパス: prokaryotic cell

1 t the arrangement of the chromosome inside a prokaryotic cell.

2 nown about the physical environment inside a prokaryotic cell.

3 electively facilitate the entry of iron into prokaryotic cells.

4 altered excitation spectra when expressed in prokaryotic cells.

5 t could be even more valuable if expanded to prokaryotic cells.

6 s effectors into neighbouring eukaryotic and prokaryotic cells.

7 et effectors/toxins into both eukaryotic and prokaryotic cells.

8 to defined in vitro biochemical analysis and prokaryotic cells.

9 eir physiological function in eukaryotic and prokaryotic cells.

10 atility as it can target both eukaryotic and prokaryotic cells.

11 chanism to distribute sizeable cargos within prokaryotic cells.

12 t the mechanisms that determine the shape of prokaryotic cells.

13 eukaryotic cells and the plasma membrane in prokaryotic cells.

14 ety of water-soluble molecules and ions into prokaryotic cells.

15 ays a critical role in the osmoregulation of prokaryotic cells.

16 fundamental process for both eukaryotic and prokaryotic cells.

17 osphate found ubiquitously in eukaryotic and prokaryotic cells.

18 een limited to the study of relatively small prokaryotic cells.

19 important targets for regulatory factors in prokaryotic cells.

20 onveniently be maintained and manipulated in prokaryotic cells.

21 ing structure essential for cell division in prokaryotic cells.

22 ropensity of plectonemically branched DNA in prokaryotic cells.

23 t of the cytoplasmic space in eukaryotic and prokaryotic cells.

24 loned and shown to operate in eukaryotic and prokaryotic cells.

25 of the homologous recombination machinery in prokaryotic cells.

26 Z ring, which is required for cytokinesis in prokaryotic cells.

27 sis of adenine nucleotides in eukaryotic and prokaryotic cells.

28 C/AG microsatellite alleles in eukaryotic or prokaryotic cells.

29 ments mediate sensory-motor responses in all prokaryotic cells.

30 minal respiratory chains in mitochondria and prokaryotic cells.

31 transduction pathways in both eukaryotic and prokaryotic cells.

32 f flagella were themselves once free-living (prokaryotic) cells.

33 In prokaryotic cells, a direct gating of mechanosensitive c

34 dization and microscopy, we demonstrate that prokaryotic cell abundances on seafloor-exposed basalts

35 CRISPR adaptive immunity pathways protect prokaryotic cells against foreign nucleic acids using CR

36 eled target nucleic acids are not useful for prokaryotic cell analysis using such arrays, a mRNA enri

37 the possible site for DNA replication in the prokaryotic cell and the site through which newly synthe

38 had a cytoskeleton that enabled it to engulf prokaryotic cells and a complex internal membrane system

39 iggle in place between segregation events in prokaryotic cells and during interphase in eukaryotic nu

40 gle phospholipase effector to influence both prokaryotic cells and eukaryotic hosts.

41 PldB targets the periplasm of prokaryotic cells and exerts an antibacterial activity.

42 fers from its counterparts in eukaryotic and prokaryotic cells and in other viruses in that it contai

43 s between segregated daughter chromosomes in prokaryotic cells and is essential for cell division.

44 nine Raman band was a suitable biomarker for prokaryotic cells and thymine Raman band for eukaryotic

45 importance of this enzyme to the survival of prokaryotic cells and to the treatment of bacterial infe

46 d DNA, respectively, to target eukaryotic or prokaryotic cells, and also homologues of eukaryotic pro

47 cytolysin is lytic for eukaryotic as well as prokaryotic cells, and it consists of two structural sub

48 l between DNA segregation and cytokinesis in prokaryotic cells, and reveals a potential molecular mec

49 mbiotic relationships between eukaryotic and prokaryotic cells are common in nature.

50 ne which part of the functional machinery of prokaryotic cells are correlated with the environments.

51 Many prokaryotic cells are encapsulated by a surface layer (S

52 vered by T6SSs into target eukaryotic and/or prokaryotic cells as well as 196 immunity proteins.

53 rom eukaryotic organisms and small RNAs from prokaryotic cells as well as viruses.

54 rom eukaryotic organisms and small RNAs from prokaryotic cells as well as viruses.

55 It is now well established that prokaryotic cells assemble diverse proteins into dynamic

56 is a core biological process that occurs in prokaryotic cells at high speeds ( approximately 1 nucle

57 hnologies have only recently been applied to prokaryotic cell biology, revealing the exquisite subcel

58 cterial proteins are needed for the study of prokaryotic cell biology.

59 ifferentiation is an outstanding question in prokaryotic cell biology.

60 tive bacteria, which play important roles in prokaryotic cell biology.

61 The method was extended to prokaryotic cells by analysis of extracts from E. coli.

62 In contrast, in prokaryotic cells, cAMP enhances the DNA binding of the

63 ned and easily observed for enumeration, and prokaryotic cells can easily be counted on the same slid

64 increased cytotoxicological potency against prokaryotic cells compared to eukaryotic cells.

65 Despite the power of bacterial genetics, the prokaryotic cell cycle has remained poorly understood.

66 mportance to understanding regulation of the prokaryotic cell cycle.

67 , an essential cytoskeletal component of the prokaryotic cell division apparatus.

68 The first visible event in prokaryotic cell division is the assembly of the soluble

69 asts use proteins derived from the ancestral prokaryotic cell division machinery, whereas mitochondri

70 cterial protein FtsZ, a key component of the prokaryotic cell division machinery.

71 Prokaryotic cell division occurs through the formation o

72 plete functional replacement of an essential prokaryotic cell division protein by another and may exp

73 cestors was the host cell recruitment of the prokaryotic cell division protein FtsZ to function in ch

74 6 gene product is related closely to Ftn2, a prokaryotic cell division protein unique to cyanobacteri

75 edness of tubulin and FtsZ, the tubulin-like prokaryotic cell division protein, we tested the effect

76 on, function, and evolution of the Z ring in prokaryotic cell division.

77 triction force, and the mechanism underlying prokaryotic cell division.

78 FtsZ is a tubulin homolog essential for prokaryotic cell division.

79 protein tubulin and plays a central role in prokaryotic cell division.

80 fication of the total transcript of a single prokaryotic cell for in-depth analysis.

81 and supply lipids in all eukaryotic and some prokaryotic cells for energy metabolism, membrane synthe

82 In this study, we used a prokaryotic cell-free expression system to reconstitute

83 unctional in driving protein expression in a prokaryotic cell-free transcription and translation syst

84 from expanded CRISPR cassette can protect a prokaryotic cell from virus infection or plasmid transfo

85 al roles in the regulation of eukaryotic and prokaryotic cell growth, division, and differentiation.

86 Receptor proteins in both eukaryotic and prokaryotic cells have been found to form two-dimensiona

87 to occlude Kv channels in eukaryotic but not prokaryotic cells, hBD-2 interacted with prokaryotic and

88 is only active after translocation from the prokaryotic cell into the eukaryotic plant cell.

89 mRNA decay in prokaryotic cells involves the action of both endo- and

90 reverse transcriptase (RT) to be found in a prokaryotic cell is encoded by an element called a retro

91 Protein synthesis in both eukaryotic and prokaryotic cells is a complex process requiring a large

92 Transcriptome analysis of single prokaryotic cells is a recently developed and powerful t

93 piratory chain in mitochondria and respiring prokaryotic cells is described by the product of three t

94 a dynamic ring marking the division plane of prokaryotic cells, is essential for cytokinesis.

95 In both eukaryotic and prokaryotic cells, it has been recently established that

96 How prokaryotic cells maintain such gene providers is centra

97 lation, as well as for understanding how the prokaryotic cell maintains homeostasis in a changing env

98 the spatial orientation of the enzyme within prokaryotic cells may differ.

99 demonstrate that the dynamic architecture of prokaryotic cell membranes is controlled by the MreB cyt

100 The functional organization of prokaryotic cell membranes, which is essential for many

101 ean Drilling Program Leg 201 showed elevated prokaryotic cell numbers in sediment layers where methan

102 at the interface between the eukaryotic and prokaryotic cells of the mammalian intestinal ecosystem.

103 iate voltage electron microscopes only small prokaryotic cells or peripheral regions of eukaryotic ce

104 n specific to viruses, lacking homologues in prokaryotic cells, outside known proviruses.

105 antibiotics display improved selectivity for prokaryotic cells over eukaryotic cells presumably due t

106 Prokaryotic cells possess CRISPR-mediated adaptive immun

107 alysis is established, but TTA from a single prokaryotic cell presents additional challenges with muc

108 biological process, which is fundamental in prokaryotic cells, remains as yet not clearly understood

109 tic-like features, it is not known how these prokaryotic cells segregate their chromosomes before the

110 , a basic element in the division process of prokaryotic cells such as Escherichia coli, Bacillus sub

111 Given the lack of a nucleus in prokaryotic cells, the significance of spatial organizat

112 uspension culture allows both eukaryotic and prokaryotic cells to assume physiologically relevant phe

113 axis signal transduction pathway that allows prokaryotic cells to control their movements in response

114 ding to partners ranging from eukaryotic and prokaryotic cells to extracellular macromolecules.

115 Eukaryotic and prokaryotic cells use cytoskeletal proteins to regulate

116 cystophyte plastid (cyanelle) has retained a prokaryotic cell wall between the two envelope membranes

117 ssengers affecting numerous responses of the prokaryotic cell, whereas in the latter, they act as ago

118 the number of spacers in a CRISPR array of a prokaryotic cell which maximizes its protection against

119 is available about diffusion coefficients in prokaryotic cells, which differ from eukaryotic cells in

120 btle genetic modifications in eukaryotic and prokaryotic cells without the requirement for prior gene