ライフサイエンスコーパス: pathogenic bacteria

1 human viruses, bovine viruses, protozoa, and pathogenic bacteria).

2 a major target of beta-lactam antibiotics in pathogenic bacteria.

3 e its efficacy with the bulk extract against pathogenic bacteria.

4 ntibiotic, by targeting the cell envelope of pathogenic bacteria.

5 rden of both Gram-positive and Gram-negative pathogenic bacteria.

6 , limiting the availability of free iron for pathogenic bacteria.

7 al washes for common respiratory viruses and pathogenic bacteria.

8 s that targets dTDP-rhamnose biosynthesis in pathogenic bacteria.

9 g inhibits C. elegans from learning to avoid pathogenic bacteria.

10 immune cells, which mount defences to clear pathogenic bacteria.

11 sting if predators can prey on host-engulfed pathogenic bacteria.

12 in nature, including growth and virulence in pathogenic bacteria.

13 in cellular redox biochemistry in humans and pathogenic bacteria.

14 e pore-forming virulence factors produced by pathogenic bacteria.

15 sential virulence factors for many important pathogenic bacteria.

16 eptibility and antagonistic impacts on other pathogenic bacteria.

17 in the capsular polysaccharides of numerous pathogenic bacteria.

18 secretion system found in environmental and pathogenic bacteria.

19 of interest as biosensors, particularly for pathogenic bacteria.

20 in of diverse prokaryotic species, including pathogenic bacteria.

21 romised by the evolution of resistance among pathogenic bacteria.

22 rms a lethal pore on the cellular surface of pathogenic bacteria.

23 e rapidly increasing of multi-drug-resistant pathogenic bacteria.

24 road-spectrum molecular diagnostic assay for pathogenic bacteria.

25 nomaterials for the detection and sensing of pathogenic bacteria.

26 uced by GI leakage and the administration of pathogenic bacteria.

27 for investigating its role in LCFA-utilizing pathogenic bacteria.

28 GM, reduced probiotic bacteria, and enriched pathogenic bacteria.

29 y decreasing binding of IgA to commensal and pathogenic bacteria.

30 e that is active against macrolide-resistant pathogenic bacteria.

31 ced with graphene for sensitive detection of pathogenic bacteria.

32 more widespread than anticipated, notably in pathogenic bacteria.

33 sted with chicken meat spiked with the three pathogenic bacteria.

34 odulate multidrug efflux pathways in several pathogenic bacteria.

35 osts interface intimately with commensal and pathogenic bacteria.

36 terials potentially capable of targeting any pathogenic bacteria.

37 such as STING are well positioned to detect pathogenic bacteria.

38 general metabolism and cellular defenses of pathogenic bacteria.

39 of these sensing architectures for detecting pathogenic bacteria.

40 all sugars are conserved across a variety of pathogenic bacteria.

41 ical for the virulence of many Gram-negative pathogenic bacteria.

42 proven useful against a number of different pathogenic bacteria.

43 is not well understood, particularly in non-pathogenic bacteria.

44 xins that includes many representatives from pathogenic bacteria.

45 confer resistance to or promote infection by pathogenic bacteria.

46 rapies can suppress villus injury induced by pathogenic bacteria.

47 opment of tools against infections caused by pathogenic bacteria.

48 ynthesis of beta-Kdo-containing glycans from pathogenic bacteria.

49 system and can protect the host from various pathogenic bacteria.

50 complex (Tc) toxins are virulence factors of pathogenic bacteria.

51 r that uncovers the corresponding epitope in pathogenic bacteria.

52 ally inducing antibiotic hypersensitivity in pathogenic bacteria.

53 enium compounds as urease inhibitors against pathogenic bacteria.

54 oxide, thus contributing to the virulence of pathogenic bacteria.

55 bolism and is crucial for virulence for some pathogenic bacteria.

56 enzymes are key virulence factors in several pathogenic bacteria.

57 m those of aerobic and facultative anaerobic pathogenic bacteria.

58 ns that serve as major virulence factors for pathogenic bacteria.

59 the development of bacteriocin resistance by pathogenic bacteria.

60 ommunities, and alter host susceptibility to pathogenic bacteria.

61 capabilities for the detection of a panel of pathogenic bacteria.

62 determinants and virulence in several human pathogenic bacteria.

63 sister to Pectobacterium, a lineage of plant pathogenic bacteria.

64 portant for virulence in a broad-spectrum of pathogenic bacteria.

65 eubiquitinases encoded by several classes of pathogenic bacteria.

66 n antimicrobial agent against some foodborne pathogenic bacteria.

67 otent activity against several Gram-positive pathogenic bacteria.

68 ontrolling bioagent to prevent the spread of pathogenic bacteria.

69 ccharides are important virulence factors in pathogenic bacteria.

70 otential as precision tools to control plant pathogenic bacteria.

71 ences are now accessible for a wide range of pathogenic bacteria.

72 side-producing and clinically drug-resistant pathogenic bacteria.

73 pt applicable to a large number of different pathogenic bacteria.

74 r its antimicrobial activity against several pathogenic bacteria.

75 es to address the challenges associated with pathogenic bacteria.

76 re modular toxin systems of insect and human pathogenic bacteria.

77 water in the respiratory chain of many human-pathogenic bacteria.

78 are two ways by which C. elegans respond to pathogenic bacteria.

79 Unlike what has been shown in other pathogenic bacteria, a lack of N-deacetylation in C. dif

80 tides targeting methionine aminopeptidase in pathogenic bacteria: a new strategy to generate antimicr

81 Pathogenic bacteria adhere despite severe mechanical per

82 ows both visualization and quantification of pathogenic bacteria adherent even to complex nonuniform

83 Here we show that infection by pathogenic bacteria alters the social communication syst

84 interaction of tSC with commensal bacteria, pathogenic bacteria and a fungal pathogen.

85 ms of concern due to their role as hosts for pathogenic bacteria and as agents of human disease.

86 l labelling specificity for a broad panel of pathogenic bacteria and Aspergillus fumigatus.

87 genes for type I IFN induction by a panel of pathogenic bacteria and DNA viruses.

88 e nematode Caenorhabditis elegans recognizes pathogenic bacteria and elicits defense responses by act

89 Many plant-pathogenic bacteria and fungi deploy effector proteins t

90 nt antimicrobial activity against the tested pathogenic bacteria and fungi, especially with WGO.

91 nt antibiotic susceptibility testing against pathogenic bacteria and guide antibiotic treatments outs

92 ant virulence factors on the surface of many pathogenic bacteria and have been implicated in a wide r

93 ing, nematodes show increased sensitivity to pathogenic bacteria and heat-shock stress.

94 he type IV secretion systems present in many pathogenic bacteria and is absolutely necessary for the

95 IL responses to pathogenic bacteria and LPS were modulated in bovine end

96 organ and cellular inflammatory responses to pathogenic bacteria and LPS.

97 otects multicellular organisms from invading pathogenic bacteria and microbial infections, but can al

98 increasing the rate of biofilm formation in pathogenic bacteria and mitigating amyloid toxicity in d

99 potent activity against a broad spectrum of pathogenic bacteria and negligible toxicity to mammals.

100 ed DFUs, and FN showed Centrifuge identified pathogenic bacteria and one virus that were corroborated

101 proteins and nucleic acids from a variety of pathogenic bacteria and operates in a continuous and ult

102 cterial activity against multiple strains of pathogenic bacteria and promoted the clearance of intrac

103 s on flagella are common to plant and animal pathogenic bacteria and represent an important determina

104 with RA was found, importance of periodontal pathogenic bacteria and rheumatoid parameters in the int

105 and lactic acid, the decrease of potentially pathogenic bacteria and the increase of bifidobacteria,

106 of the heme-sensing and transport systems of pathogenic bacteria and the potential of these systems a

107 In this review, we discuss important pathogenic bacteria and the underlying mechanisms by whi

108 as it could be used to differentiate between pathogenic bacteria and their harmless, commensal relati

109 PFOR is present in these anaerobic pathogenic bacteria and thus we hypothesized that amixic

110 Highly reminiscent of pathogenic bacteria and viruses, exosomes are recruited

111 ptomatic neonates, also after adjustment for pathogenic bacteria and viruses, indicating that sibling

112 susceptibility to co-infection with certain pathogenic bacteria and viruses.

113 ests that phages can defend the host against pathogenic bacteria and, therefore, modulation of the mi

114 from 40 to 87% for human viruses, 65-87% for pathogenic bacteria, and 13-35% for bovine viruses.

115 nderstanding virulence strategies of several pathogenic bacteria, and for repurposing CDCs to kill ne

116 cs that may lead to multi-drug resistance in pathogenic bacteria, aptamer-based technologies potentia

117 c resistance, novel strategies for combating pathogenic bacteria are being investigated.

118 Both commensal and pathogenic bacteria are capable of producing molecules t

119 odulatory surface molecules of commensal and pathogenic bacteria are critical to microorganisms' surv

120 tion activator-like (TAL) effectors of plant pathogenic bacteria are encoded in the three sequenced M

121 In a world where infection-causing, pathogenic bacteria are evolving resistance to conventio

122 Pathogenic bacteria are extremely efficient in orchestra

123 Compounds that specifically target pathogenic bacteria are greatly needed, and identifying

124 cant levels of infectious diseases caused by pathogenic bacteria are nowadays a worldwide matter, car

125 Pathogenic bacteria are responsible for several diseases

126 vity, pro-inflammatory mechanisms induced by pathogenic bacteria are well-established; however, the a

127 proteins highlighted gene transfers from non-pathogenic bacteria as a key factor in the evolution of

128 cell-to-cell phenotypic heterogeneity among pathogenic bacteria as they infect macrophages.

129 late microbiomes that encompass spoilage and pathogenic bacteria as well as desirable starter culture

130 Colonization of the endometrium by pathogenic bacteria ascending from the lower female repr

131 Pathogenic bacteria associated with freshwater ecosystem

132 owth in three species of multidrug-resistant pathogenic bacteria associated with wound infections: St

133 As pathogenic bacteria become resistant to traditional anti

134 We observed a significant decline of pathogenic bacteria before adulthood, with an increase o

135 This defect shortens lifespan on highly pathogenic bacteria but extends lifespan and health span

136 e with GI leakage plus the administration of pathogenic bacteria but not with GI leakage induction al

137 of proteins that act as virulence factors of pathogenic bacteria, but similar proteins are found in a

138 enic nanotoxoids for use as vaccines against pathogenic bacteria by leveraging the natural affinity o

139 ted with the detection and identification of pathogenic bacteria, by providing an introduction to the

140 Oral pathogenic bacteria can colonize Ti surfaces, leading to

141 Everyone who is colonized with these pathogenic bacteria can develop gastric inflammation, te

142 Rapid and portable diagnosis of pathogenic bacteria can save lives lost from infectious

143 Plant pathogenic bacteria cause high crop and economic losses

144 Pathogenic bacteria causing infectious diseases are prom

145 tic increase in antimicrobial resistance for pathogenic bacteria constitutes a key threat to human he

146 Dy-I-PhiAB6TSP also cross-reacted with other pathogenic bacteria containing Pse on their surface poly

147 While pathogenic bacteria contribute to a large number of glob

148 Colonization by pathogenic bacteria depends on their ability to overcome

149 Timely and sensitive pathogenic bacteria detection is crucial in bacterial co

150 li O157:H7 specific antibodies for sensitive pathogenic bacteria detection.

151 teractions between host cells and individual pathogenic bacteria determine the clinical severity of d

152 g and biofilm-forming capacities outcompeted pathogenic bacteria during nasal colonization in vivo.

153 ensor for label free impedimetric sensing of pathogenic bacteria E. coli O78:K80:H11.

154 ell growth retardation could be observed for pathogenic bacteria (e.g., Staphylococcus aureus and Pse

155 The administration of pathogenic bacteria, either Klebsiella pneumoniae or Sal

156 During epithelial infections, pathogenic bacteria employ an array of strategies to att

157 Pathogenic bacteria encounter host-imposed manganese (Mn

158 Pathogenic bacteria enter the cytosol of host cells thro

159 of small molecules (glucose) or detection of pathogenic bacteria (Escherichia coli O157:H7).

160 We tested 24 strains of pathogenic bacteria (Escherichia coli, Salmonella spp an

161 Infectious diseases caused by pathogenic bacteria, especially antibiotic-resistant bac

162 no visible cross-reaction with other common pathogenic bacteria, even at concentrations as high as 1

163 Pathogenic bacteria exploit microbiota-derived sources o

164 Most pathogenic bacteria express surface carbohydrates called

165 ectins play important roles in infections by pathogenic bacteria, for example, in host colonization,

166 nsect virulence model to selectively isolate pathogenic bacteria from soils in Cornwall (UK).

167 The same biopolymers when produced by pathogenic bacteria function as major virulence factors,

168 Plants are under relentless challenge by pathogenic bacteria, fungi, and oomycetes, for whom they

169 a superfamily of proteins produced by plant pathogenic bacteria, fungi, and oomycetes.

170 ed to possess antimicrobial activity against pathogenic bacteria, fungi, and parasites.

171 trains of Zika and Dengue virus, distinguish pathogenic bacteria, genotype human DNA, and identify mu

172 used to target a range of difficult-to-treat pathogenic bacteria, given that cell wall hydrolases are

173 Contamination of food by pathogenic bacteria has always been a serious threat for

174 The rapid increase in antibiotic resistant pathogenic bacteria has become a global threat, which be

175 Lactococcus lactis, a non-pathogenic bacteria, has been genetically engineered to

176 arbohydrate in surface-associated glycans of pathogenic bacteria, has pivotal roles in virulence.

177 Pathogenic bacteria have always posed one of the most se

178 Pathogenic bacteria have evolved highly specialized syst

179 As such, pathogenic bacteria have evolved sophisticated cell surf

180 e(3+)) via siderophore receptor systems, and pathogenic bacteria have further lowered this barrier by

181 It is assumed that intracellular pathogenic bacteria have to cope with DNA alkylating str

182 Nickel is essential for the survival of the pathogenic bacteria Helicobacter pylori in the fluctuati

183 Commensal and pathogenic bacteria hydrolyze host lipid substrates with

184 re-based signaling strategy could facilitate pathogenic bacteria identification and quantification no

185 used as a readout means for highly sensitive pathogenic bacteria identification and quantification.

186 include biomass reduction, their use against pathogenic bacteria in agriculture, and in medicine as a

187 that can evaluate antibiotic resistance for pathogenic bacteria in order to deliver targeted antibio

188 The SBIs were defined as a pathogenic bacteria in positive culture of blood, cerebr

189 to uncover the distribution and identity of pathogenic bacteria in the environment, as well as uncov

190 t protection by limiting the colonization of pathogenic bacteria in the gut, but the mechanisms by wh

191 s in regulating the fitness of commensal and pathogenic bacteria in the gut.

192 In babies and infants the presence of pathogenic bacteria in the lungs and gut has been associ

193 target genes and improved host resistance to pathogenic bacteria in the short term, chronic inactivat

194 Zinc (Zn) is an essential nutrient that pathogenic bacteria, including A. baumannii, must acquir

195 est for their ability to selectively destroy pathogenic bacteria, including antibiotic-resistant stra

196 or the viability and virulence of many human pathogenic bacteria, including Streptococcus pyogenes (G

197 ellular processes, inhibiting growth of many pathogenic bacteria, including the major respiratory pat

198 restore the activity of beta-lactams against pathogenic bacteria, including those producing class A,

199 per and zinc, altered gut microbiota to more pathogenic bacteria, increased inflammatory markers, and

200 d detections of human and bovine viruses and pathogenic bacteria indicating influence of multiple con

201 A central question to biology is how pathogenic bacteria initiate acute or chronic infections

202 Pathogenic bacteria inject effector proteins into host c

203 Plant pathogenic bacteria interact with their insect host(s)/v

204 Pathogenic bacteria invade plant tissues and proliferate

205 Antibiotic resistance in pathogenic bacteria is a continual threat to human healt

206 Emerging antibiotic resistance among pathogenic bacteria is an issue of great clinical import

207 uding aminoglycosides, against intracellular pathogenic bacteria is compromised due to their inabilit

208 Copper homeostasis in pathogenic bacteria is critical for cuproprotein assembl

209 Finding fast and reliable ways to detect pathogenic bacteria is crucial for addressing serious pu

210 The presence of pathogenic bacteria is highly associated with advanced s

211 Detection of pathogenic bacteria is imperative to avoid and/or fight

212 Moreover, the motility of pathogenic bacteria is negatively affected by lignin acc

213 e conserved in other bacteria, including the pathogenic bacteria lacking the assembly factor CcoH as

214 e infected EEC aggregates with commensal and pathogenic bacteria: Lactobacillus crispatus, Gardnerell

215 In turn, C. elegans starts to vacate the pathogenic bacteria lawn.

216 a delayed or imprecise diagnosis of clinical pathogenic bacteria leads to a life-threatening emergenc

217 hors show that in Drosophila, infection with pathogenic bacteria leads to increased pheromone release

218 typhimurium without interference from other pathogenic bacteria like Escherichia coli.

219 mainly in Gram-positive bacteria, including pathogenic bacteria like Listeria monocytogenes CdaA is

220 Plant pathogenic bacteria, like Pseudomonas syringae and Xanth

221 This work addresses the problem that pathogenic bacteria may be lysogenized by phages carryin

222 environments where glucose is limited, some pathogenic bacteria metabolize host-derived sialic acid

223 Listeria monocytogenes and other pathogenic bacteria modify their peptidoglycan to protec

224 Pathogenic bacteria must withstand diverse host environm

225 used to study variations in the genomes of a pathogenic bacteria Mycobacterium tuberculosis.

226 Pathogenic bacteria need to rapidly adjust their virulen

227 l species and a subsequent colonization of a pathogenic bacteria Nocardia.

228 Pathogenic bacteria of the genera Mycobacterium and Cory

229 Pathogenic bacteria of the genus Bartonella can induce v

230 Plant pathogenic bacteria of the genus Xanthomonas possess tra

231 The effect of pathogenic bacteria on a host and its symbiotic microbio

232 irst evaluation of the alterations caused by pathogenic bacteria on symbiotic microbiota using C. ele

233 el antibiotics that disrupt the signaling of pathogenic bacteria or it could help to guide the treatm

234 When C. elegans first encounters pathogenic bacteria P. aeruginosa, SOD-1 is induced in t

235 Pathogenic bacteria pose a health threat and operational

236 Certain pathogenic bacteria produce and release toxic peptides t

237 Certain commensal and pathogenic bacteria produce colibactin, a small-molecule

238 Many pathogenic bacteria produce pore-forming toxins to attac

239 , after C. elegans have learned to avoid the pathogenic bacteria Pseudomonas aeruginosa (PA14), they

240 of genes encoding exDNase activity in plant-pathogenic bacteria (Ralstonia solanacearum) and fungi (

241 Pathogenic bacteria rely on secreted effector proteins t

242 trains, low innate resistance development by pathogenic bacteria, remained nonimmunogenic for T lymph

243 (phytopathogenic fungus Botrytis cinerea and pathogenic bacteria, respectively).

244 ow that exposing newly hatched C. elegans to pathogenic bacteria results in persistent aversion to th

245 uation of these compounds against a panel of pathogenic bacteria revealed that the majority of these

246 -of-concept, the assay was applied to detect pathogenic bacteria Salmonella spp. and to identify bovi

247 In the course of infecting their hosts, pathogenic bacteria secrete numerous effectors, namely,

248 Pathogenic bacteria secrete toxins and degradative enzym

249 -inositol phosphatases (PTPLPs) from the non-pathogenic bacteria Selenomonas ruminantium (PhyAsr) and

250 with the increasing antibiotic resistance of pathogenic bacteria, severe infections are reported more

251 have served as powerful therapeutics against pathogenic bacteria since the golden age of antibiotics

252 , and it can be utilized for typing of other pathogenic bacteria species.

253 ood meal intake resulted in proliferation of pathogenic bacteria such as Elizabethkingia in the midgu

254 Pathogenic bacteria such as Haemophilus influenzae, a ma

255 from human or DNA from other closely-related pathogenic bacteria, such as Anaplasma platys, Ehrlichia

256 the detrimental consequences of infection by pathogenic bacteria, such as H. pylori, that exploit the

257 ase severity and increased colonization with pathogenic bacteria, such as S aureus.

258 distantly related to characterized PLDs from pathogenic bacteria, suggesting a distinct evolutionary

259 AB569 is a safe and effective means to kill pathogenic bacteria, suggesting that simple strategies c

260 haem biosynthesis within many Gram positive pathogenic bacteria suggests that this route has the pot

261 od was able to clearly distinguish among the pathogenic bacteria tested within 50 min, with detection

262 ombination are more effective in controlling pathogenic bacteria than either alone.

263 used antibiotics experienced by potentially pathogenic bacteria that are asymptomatically colonizing

264 The alarming increase of pathogenic bacteria that are resistant to multiple antib

265 Ticks (order Ixodida) vector pathogenic bacteria that cause diseases in humans and ot

266 Salmonellae are pathogenic bacteria that cause significant morbidity and

267 tes infectivity of Legionella pneumophila, a pathogenic bacteria that causes Legionnaires' disease(1-

268 nthomonas genus includes Gram-negative plant-pathogenic bacteria that collectively infect a broad ran

269 cal for the expression of virulence genes in pathogenic bacteria that infect warm-blooded hosts.

270 ion and are triggered by several toxins from pathogenic bacteria that provoke vascular leakage.

271 Our pipeline reliably identified pathogenic bacteria (that is, Klebsiella pneumoniae and

272 For pathogenic bacteria, the ability to sense and respond to

273 driving horizontal gene transfer (HGT) among pathogenic bacteria, the underlying molecular mechanisms

274 ward combating infectious diseases caused by pathogenic bacteria, there remains an unmet need for dia

275 ctors, whereas when they are produced by non-pathogenic bacteria, they become food ingredients or bio

276 Given the prevalence of this protein fold in pathogenic bacteria, this work also lays the foundation

277 on the carriage of antibiotic resistance in pathogenic bacteria to a broader concept of an oral resi

278 structural elaboration that may have enabled pathogenic bacteria to colonize higher-viscosity environ

279 gen interactions and are required by certain pathogenic bacteria to establish a successful infection.

280 ffectors (TALEs), an effector class in plant pathogenic bacteria, transcriptionally activate host gen

281 t control is responsible for the survival of pathogenic bacteria under stress conditions, and contrib

282 Pathogenic bacteria use specific host factors to modulat

283 ave specific implications for the control of pathogenic bacteria using antibiotics and for understand

284 ions, and decreased the virulence factors of pathogenic bacteria (VF 0073-ClpE, VF0124-LPS, and VF035

285 millepora colonies (genotypes) to putatively pathogenic bacteria (Vibrio spp.).

286 One particular group of pathogenic bacteria - vibrios - are a globally important

287 r), encounter rates with ticks infected with pathogenic bacteria was significantly lower (98%) at bur

288 h, glycOMVs corresponding to eight different pathogenic bacteria were generated.

289 Potentially pathogenic bacteria were ubiquitous among samples but co

290 ly, pheromones also promote the ingestion of pathogenic bacteria while increasing resistance to the p

291 These heavy-metal-free QDs eliminate MDR pathogenic bacteria, while remaining non-toxic to host h

292 opment of these tools for the mutagenesis of pathogenic bacteria will permit forward genetic analysis

293 actions between the microbiota, the host and pathogenic bacteria will produce strategies for manipula

294 a new sepsis model of oral administration of pathogenic bacteria with GI leakage induced by either an

295 ounds 1~3 inhibited the growth of the tested pathogenic bacteria with minimum inhibitory concentratio

296 conjugate effectively cleared intracellular pathogenic bacteria within macrophages more potently tha

297 by persistently low diversity, dominance of pathogenic bacteria within the Enterobacteriaceae family

298 microenvironment, amplifying the killing of pathogenic bacteria within.

299 The natural antibiotic teixobactin kills pathogenic bacteria without detectable resistance.

300 rise the RNase E catalytic domains from four pathogenic bacteria: Yersinia pestis, Francisella tulare