ライフサイエンスコーパス: protein secretion system

1 the cytoplasmic membrane through a type III protein secretion system.

2 imers, to engineer the first light-triggered protein secretion system.

3 is injected into plant cells by the type III protein secretion system.

4 (S. typhimurium-NY-ESO-1) through a type III protein secretion system.

5 determinant of this pathogen is its type III protein secretion system.

6 components, nitrogen fixation and a type-III protein secretion system.

7 dependent on a functional type III bacterial protein secretion system.

8 ella pathogenicity island 1-encoded type III protein secretion system.

9 henotypes associated with the SPI-1 type III protein secretion system.

10 ted into host mammalian cells via a type III protein secretion system.

11 that R. l. bv. viciae 3841 has ten putative protein secretion systems.

12 E (GspE) family of proteins found in type II protein secretion systems.

13 se of other loci that encode DNA transfer or protein secretion systems, all of which are members of t

14 ce modifications but more genes for Sec-like protein secretion systems, anaplerotic CO(2) incorporati

15 gen Pseudomonas syringae requires a type-III protein secretion system and the effector proteins it in

16 nsitive response and pathogenicity) type III protein secretion system and the effector proteins it tr

17 hese events chiefly depend upon the type III protein secretion system and the effector proteins that

18 n Pseudomonas syringae depends on a type III protein secretion system and the effector proteins that

19 y express both the HR and pathogenesis (Hrp) protein secretion system and the HrpZ harpin from P. syr

20 hanisms of substrate recognition by type III protein secretion systems and AAA + ATPase disassembly m

21 MFPs) are essential components of the type I protein secretion systems and drug efflux pumps in Gram-

22 ion system that is conserved in all type III protein secretion systems and is required for most patho

23 rmation for further understanding chlamydial protein secretion systems and modeling COMC and EB struc

24 process found to be dependent on a type III protein secretion system, and SipB, a protein with membr

25 Type III protein secretion systems are being considered for vacci

26 hylum Bacteroidetes, suggesting that similar protein secretion systems are common among members of th

27 Protein secretion systems are critical to bacterial viru

28 Type III protein secretion systems are essential virulence factor

29 Type III protein secretion systems are unique bacterial nanomachi

30 e that GBPs detect the presence of bacterial protein secretion systems as "patterns of pathogenesis"

31 O, which encode components of a bacteroidete protein secretion system, blocked the transport of RemA

32 A specialized type III protein secretion system capable of translocating bacter

33 Bacterial type III protein secretion systems deliver effector proteins into

34 Pathogenic Yersinia spp. possess a protein secretion system, designated as type 3, that pla

35 tures with the previously described type III protein secretion system effector ILEs and are considere

36 Salmonella typhimurium uses of a type III protein secretion system encoded at centisome 63 of its

37 function of the invasion-associated type III protein secretion system encoded by S. typhimurium.

38 A type III protein secretion system encoded by Salmonella pathogeni

39 Pseudomonas syringae uses a type III protein secretion system encoded by the Hrp pathogenicit

40 In addition to the type III protein secretion system encoded by the mxi/spa loci on

41 rapid, specific, and depends on the type III protein secretion system encoded within Salmonella patho

42 gely dependent on the function of a type III protein-secretion system encoded at centisome 63 of its

43 pression of the invasion-associated Type III protein-secretion system encoded at centisome 63 of the

44 ncodes a component of a virulence-associated protein secretion system, enhanced the apoptosis of infe

45 virulence mechanisms, including the type VII protein secretion system ESX-1, biosynthesis of polyketi

46 Mycobacteria use the dedicated type VII protein secretion systems ESX-1 and ESX-5 to secrete vir

47 aureus pathogenesis depends on a specialized protein secretion system (ESX-1) that delivers a range o

48 ow 20 degrees C and that a bacterial type II protein secretion system facilitates growth at low tempe

49 s include the switching between two type III protein secretion systems, flagellum biosynthesis (</=30

50 ) whose products show similarity to type III protein secretion systems found in plant and animal path

51 The Type VII protein secretion system, found in Gram-positive bacteri

52 Similarity searches using defined protein secretion systems from other Gram-negative bacte

53 understood in mechanistic detail is how this protein secretion system functions.

54 Here we show that the extracellular protein secretion system (gene designated eps) is involv

55 Type III protein secretion systems have specifically evolved to d

56 considerably advance knowledge of the plant protein secretion system in general and emphasize the ve

57 also hinted at the existence of a dedicated protein secretion system in Gram-positive bacteria, targ

58 Protein secretion systems in Gram-negative bacteria evol

59 Its virulence depends on protein secretion systems, in particular, the Dot/Icm ty

60 aments analogous to curli are formed by many protein secretion systems, including the type III secret

61 land 1 controls the expression of a type III protein secretion system involved in the invasion of hos

62 The Snm protein secretion system is a critical determinant of My

63 These results suggest that the type III protein secretion system is integral to increased P. aer

64 with the general rule that the expression of protein secretion systems is tightly regulated, expressi

65 The Hrp (type III protein secretion) system is essential for the plant par

66 t eukaryotic hosts is a class of specialized protein secretion systems (known as type III protein sec

67 In this model, the protein secretion system of insulin-producing pancreatic

68 The ESX-1 protein secretion system of Mycobacterium tuberculosis-t

69 e Hrp pilus is assembled by the Hrp type III protein secretion system of Pseudomonas syringae pv. tom

70 the host-cell cytosol by using the type III protein secretion system of S. typhimurium.

71 a novel target of the centisome 63 type III protein secretion system of Salmonella enterica.

72 are also conserved in the type III virulence protein secretion systems of animal pathogenic Yersinia,

73 acteristics with chaperones used in type III protein secretion systems of animal pathogens.

74 ponents of multidrug efflux pumps and type I protein secretion systems of gram-negative bacteria.

75 SRE encode all six known protein secretion systems present in gram-negative bacte

76 None of the R. l. bv. viciae 3841 protein secretion systems putatively involved in the sec

77 ly secretory antigen target 6 kDa secretion) protein secretion systems require FtsK/SpoIIIE family AT

78 Hemin binding proteins, secretion systems, response regulators, and ge

79 rect or indirect restriction of the type III protein secretion system's (T3SS) ability to inject type

80 An auxiliary protein secretion system (SecA2) has recently emerged in

81 s a Gram-negative bacterium that possesses a protein secretion system similar to those found in Salmo

82 We have shown here that two targets of this protein-secretion system, SipB and SipC, are translocate

83 genome of Q8r1-96 and identified a type III protein secretion system (T3SS) gene cluster that has ov

84 herichia coli (EPEC and EHEC) use a type III protein secretion system (T3SS) to inject microbial prot

85 Type III protein secretion systems (T3SSs), which have evolved to

86 Type VI protein secretion system (T6SS) is important for bacteri

87 The type VII protein secretion system (T7SS) plays a critical role in

88 e pathogenic bacteria have evolved a complex protein secretion system termed type III to deliver bact

89 thogenic bacteria have evolved a specialized protein secretion system termed type III to secrete and

90 elivered into the host cell by a specialized protein secretion system termed type III.

91 lants and animals have evolved a specialized protein-secretion system termed type III to deliver bact

92 host-cell cytosol by means of a specialized protein-secretion system (termed type III), which causes

93 consequence of this interaction, a dedicated protein secretion system, termed type III, is activated

94 enesis pathway is one of the best-understood protein secretion systems, thanks largely to innovative

95 Salmonella enterica has evolved a type III protein secretion system that allows these enteropathoge

96 P. syringae hrp/hrc genes encode a type III protein secretion system that appears to translocate Avr

97 is interaction is the function of a type III protein secretion system that delivers effector proteins

98 en Pseudomonas syringae possesses a type III protein secretion system that delivers many virulence pr

99 the Salmonella chromosome encodes a type III protein secretion system that is essential for its patho

100 ealed that this region encodes a specialized protein secretion system that mediates the export and/or

101 rous bacterial pathogens possess specialized protein secretion systems that are dedicated to the expo

102 lence factors and contains three of the four protein secretion systems that have been described in gr

103 eria, type II secretion (T2S) is one of five protein secretion systems that permit the export of prot

104 protein secretion systems (known as type III protein secretion systems) that deliver bacterial virule

105 Recently, a novel protein secretion system, the Por secretion system (PorS

106 A novel protein secretion system, the type IX secretion system (

107 A novel protein secretion system, the type IX secretion system (

108 T. fusca possesses two protein secretion systems: the sec general secretion sys

109 Among protein secretion systems, there are specialized ATPases

110 proteins into host cells through a type III protein secretion system to cause disease.

111 Salmonella spp. utilize a specialized protein secretion system to deliver a battery of effecto

112 Many bacterial pathogens use a type III protein secretion system to deliver virulence effector p

113 hogens use at least 6 distinct extracellular protein secretion systems to export proteins through the

114 Bacteria utilise specialised protein secretion systems to interact with host organism

115 ant pathogen that is dependent on a type III protein secretion system (TTSS) and the effector protein

116 ected with Salmonella: SipB and the type III protein secretion system (TTSS) encoded by Salmonella pa

117 directly to the plant cell via the type III protein secretion system (TTSS) of Xcv.

118 hrp pathogenicity island encodes a type III protein secretion system (TTSS) that is required for pat

119 gen Pseudomonas syringae requires a type III protein secretion system (TTSS) to cause disease.

120 into host cells via the hrp-encoded type III protein secretion system (TTSS) to facilitate pathogenes

121 Type III protein secretion systems (TTSSs) are ancestrally relate

122 The stimulation requires a protein secretion system (type III) that translocates ba

123 predicted amino acid homologies with type I protein secretion systems (typified by Escherichia coli

124 nd ChiX operate in tandem as components of a protein secretion system used by gram-negative bacteria.

125 lE, a pectate lyase secreted via the type II protein secretion system, was not associated with the Hr

126 Genes associated with other bacterial protein secretion systems were less common.

127 ions in genes that encode components of this protein-secretion system were devoid of macrophage cytot

128 and HrpT are all components of the type III protein secretion system whereas HrpV is a negative regu

129 of Salmonella typhimurium encode a type III protein secretion system which is essential for the abil

130 This protein secretion system, which has been termed type III

131 DC3000 to infect host plants is the type III protein secretion system, which is thought to deliver mu

132 umophila is dependent on the Dot/Icm type IV protein secretion system, which translocates effectors i

133 Type III protein secretion systems, which are organelles with the

134 Salmonella enterica encodes a type III protein secretion system within a pathogenicity island (