ライフサイエンスコーパス: Gram-positive bacteria

1 bility in a wider range of Gram negative and Gram positive bacteria.

2 Its antibacterial activity is limited to gram positive bacteria.

3 covalently attached to the peptidoglycan of gram positive bacteria.

4 gulates the biosynthesis of phospholipids in Gram-positive bacteria.

5 sensitive and highly selective detection of Gram-positive bacteria.

6 en acquired by horizontal gene transfer from gram-positive bacteria.

7 c streptococci and is likely conserved among Gram-positive bacteria.

8 ss regulator Spx is ubiquitously found among Gram-positive bacteria.

9 secretion systems in many Gram-negative and Gram-positive bacteria.

10 tial target for evaluating antimicrobials in gram-positive bacteria.

11 omplementing the method's proven utility for Gram-positive bacteria.

12 ring elongation in rod-shaped and ovococcoid Gram-positive bacteria.

13 whose hosts are Bacillus cereus and related Gram-positive bacteria.

14 dable in vitro activity against a variety of Gram-positive bacteria.

15 oups by their hosts, either Gram-negative or Gram-positive bacteria.

16 xhibits potent antimicrobial effects against Gram-positive bacteria.

17 iscuous plasmids and their preference toward Gram-positive bacteria.

18 anding the biology of tectiviruses infecting Gram-positive bacteria.

19 hat displays nanomolar activity against many Gram-positive bacteria.

20 e opposite trend was observed in the case of Gram-positive bacteria.

21 vidin, recognizing almost none of the tested Gram-positive bacteria.

22 obal regulator of transcription in low G + C Gram-positive bacteria.

23 wn function that is well conserved in low-GC Gram-positive bacteria.

24 he CTC protein, a feature typical to various Gram-positive bacteria.

25 ive peptide/protein pairs we engineered from Gram-positive bacteria.

26 wn tropism of RNA bacteriophages may include gram-positive bacteria.

27 nificant antimicrobial effect, especially in gram-positive bacteria.

28 uses (bacteriophages) specifically infecting Gram-positive bacteria.

29 izes many types of PAMPs that originate from gram-positive bacteria.

30 peptides, and vulnerability to infection by Gram-positive bacteria.

31 epeat glycoproteins (SRRPs) are conserved in Gram-positive bacteria.

32 ich is linked to cell growth and division in Gram-positive bacteria.

33 , Staphylococci, and Streptococci, and other Gram-positive bacteria.

34 ates initiation of DNA replication in low-GC Gram-positive bacteria.

35 The most commonly identified organisms were gram-positive bacteria.

36 e pathway that produces phosphatidic acid in Gram-positive bacteria.

37 negative bacteria, but neither is present in Gram-positive bacteria.

38 gh which the stringent response functions in Gram-positive bacteria.

39 ossessed weak antibacterial activity against Gram-positive bacteria.

40 elements are now thought to occur widely in gram-positive bacteria.

41 elevant for the killing of Gram-negative and Gram-positive bacteria.

42 tic with rapid bactericidal activity against gram-positive bacteria.

43 yclic depsipeptide antibiotic active against Gram-positive bacteria.

44 , but they are ineffective against resistant gram-positive bacteria.

45 est basins displayed an increase in only the gram-positive bacteria.

46 nst fluoroquinolone resistant MRSA and other Gram-positive bacteria.

47 cell wall biosynthesis and pathogenicity in Gram-positive bacteria.

48 mids carrying antibiotic resistance genes in Gram-positive bacteria.

49 le is known about flagellin glycosylation in Gram-positive bacteria.

50 tibiotics, which inhibit the growth of other Gram-positive bacteria.

51 ins to the peptidoglycan of the cell wall of gram-positive bacteria.

52 used by staphylococci, enterococci and other Gram-positive bacteria.

53 y key roles in several cellular processes in Gram-positive bacteria.

54 nctionalize the peptidoglycan layers of many Gram-positive bacteria.

55 ed in PHPT homologues from Gram-negative and Gram-positive bacteria.

56 ons caused by Staphylococcus aureus or other Gram-positive bacteria.

57 ning a new mechanism of protein anchoring in Gram-positive bacteria.

58 h regulates many amino acid-related genes in Gram-positive bacteria.

59 s and is known to possess selectivity toward Gram-positive bacteria.

60 e essential for function and conserved among Gram-positive bacteria.

61 ) is an important cell wall polymer found in gram-positive bacteria.

62 broad scope of activities against different Gram-positive bacteria.

63 nent required for proper cell growth in many Gram-positive bacteria.

64 es level differentiation of the investigated Gram-positive bacteria.

65 copeptide with bactericidal activity against gram-positive bacteria.

66 enuate the inflammatory responses induced by Gram-positive bacteria.

67 crobial activity against S. aureus and other Gram-positive bacteria.

68 conditions and many preferentially targeting Gram-positive bacteria.

69 to catalyze both reactions of the process in Gram-positive bacteria.

70 and subsequent release of vesicular cargo in Gram-positive bacteria.

71 igenetic regulation of cellular functions in Gram-positive bacteria.

72 he virulence of numerous medically important Gram-positive bacteria.

73 determinants dispersed and maintained among Gram-positive bacteria.

74 fatty acid and phospholipid biosynthesis in Gram-positive bacteria.

75 stance determinants and adaptations in other Gram-positive bacteria.

76 r background for cultures with non-S. aureus Gram-positive bacteria.

77 ntimicrobial or quorum signaling peptides in Gram-positive bacteria.

78 EVs have now been described for a variety of Gram-positive bacteria.

79 interaction with the peptidoglycan layer of Gram-positive bacteria.

80 ues are late cell division proteins found in Gram-positive bacteria.

81 differentiate between viable and non-viable Gram-positive bacteria.

82 y and potency against both Gram-negative and Gram-positive bacteria.

83 th P. aeruginosa and other gram-negative and gram-positive bacteria.

84 nterococcus faecalis as a model organism for Gram-positive bacteria.

85 hibitory concentration (MIC) values] against Gram-positive bacteria.

86 e Au(I) complexes for both Gram-negative and Gram-positive bacteria.

87 f complex rhamnose-containing CWPSs in other Gram-positive bacteria.

88 ensor was highly efficient in the capture of Gram-positive bacteria.

89 functionally homologous to the WTA of other Gram-positive bacteria.

90 y both multidrug-resistant Gram-negative and Gram-positive bacteria(1).

91 All bacteria detected were gram-positive bacteria (100%), most commonly: Staphyloco

92 fective drug target for resistant strains of Gram-positive bacteria.2 In addition, because sortase A

93 gulase-negative staphylococci not included): Gram-positive bacteria, 58%; Gram-negative bacteria, 78%

94 The most frequent pathogens were gram-positive bacteria (91.3%), including coagulase-nega

95 d in 70% of patients, with a predominance of Gram-positive bacteria (93%).

96 In Gram-positive bacteria, a subset of surface proteins rel

97 Furthermore, Gram-positive bacteria acutely activate Hippo-Yorkie sig

98 16S rRNA gene pyrosequencing showed that Gram-positive bacteria affiliated with the Firmicutes an

99 or of coproporphyrinogen oxidase (CgoX) from Gram-positive bacteria, an enzyme essential for heme bio

100 Most of Gram-positive bacteria anchor surface proteins to the pe

101 tase, a cysteine-transpeptidase conserved in Gram-positive bacteria, anchors on the cell wall many su

102 DnaD protein is essential in low G+C content gram positive bacteria and is involved in replication in

103 representative of monomeric RmlD enzymes in Gram-positive bacteria and a subset of Gram-negative bac

104 the formation of competence-induced pili in Gram-positive bacteria and corroborate the remarkable st

105 ignaling', exists in other Gram-negative and Gram-positive bacteria and displays species-specificity.

106 assays showed antimicrobial activity against Gram-positive bacteria and fission yeast.

107 n a synthetic community of Gram-negative and Gram-positive bacteria and fungi.

108 on-classically secreted effector proteins in Gram-positive bacteria and further inspire the developme

109 ibiotic activity (MIC = 15.6 mug/mL) against Gram-positive bacteria and growth reduction of Gram-nega

110 biosensors for in vivo metabolite imaging in Gram-positive bacteria and have validated the first dinu

111 Here, we characterized GPs from Gram-positive bacteria and heterokont algae acting on be

112 on the biogenesis and functions of EVs from Gram-positive bacteria and identify key areas for future

113 translocons, found in both gram-negative and gram-positive bacteria and in some archaea.

114 of gut microbiota with reduced abundance of gram-positive bacteria and increased abundance of gram-n

115 ancomycin, an antibiotic that acts mainly on gram-positive bacteria and is restricted to the gut, pot

116 is present in a subset of gram-negative and gram-positive bacteria and is the founding member of a n

117 ins are related to class IIa bacteriocins of Gram-positive bacteria and kill members of the Bacteroid

118 lecular patterns including peptidoglycans of Gram-positive bacteria and lipopolysaccharides of Gram-n

119 uld be used for the quantitative analysis of Gram-positive bacteria and might be applied potentially

120 youngest basins had increased abundances of gram-positive bacteria and saprotrophic fungi at higher

121 us of Zg16(-/-) animals had a higher load of Gram-positive bacteria and showed bacteria with higher m

122 rium spp. have demonstrated EV production in Gram-positive bacteria and shown the great importance EV

123 e reductase) protein family, is conserved in Gram-positive bacteria, and interacts with RNA polymeras

124 In Gram-positive bacteria, and particularly the Firmicutes,

125 gram-negative bacteria, lipoteichoic acid in gram-positive bacteria, and phospholipomannan in fungi.

126 isteria monocytogenes, as well as many other Gram-positive bacteria, and which highlights a more gene

127 protein family, which is spread widely among gram-positive bacteria; and suggests approaches to targe

128 Gram positive bacteria are the major contributor of bact

129 Gram-positive bacteria are decorated by a variety of pro

130 Because the features of Gram-positive bacteria are fundamentally different relat

131 EVs purified from Gram-positive bacteria are implicated in virulence, toxi

132 Surface proteins in Gram-positive bacteria are incorporated into the cell wa

133 he serine-rich repeat (SRR) glycoproteins of Gram-positive bacteria are large, cell wall-anchored adh

134 Gram-positive bacteria are prominent members of plant-as

135 Many amino acid-related genes in Gram-positive bacteria are regulated by the T box ribosw

136 However, the mechanisms of MV formation in Gram-positive bacteria are unclear, as these cells posse

137 obacteria and Firmicutes (high-GC and low-GC Gram-positive bacteria) are unable to synthesize protopo

138 anscription in innate immunity, and identify Gram-positive bacteria as extracellular stimuli of Hippo

139 A similar mechanism probably operates in the gram-positive bacteria as well, but these systems have b

140 ver, treated cattle had reduced abundance of gram-positive bacteria at the genus level.

141 nally, we discover aminoacyl-PGs not only in Gram-positive bacteria but also in Gram-negative C. jeju

142 none oxidoreductases (Sdh) are widespread in Gram-positive bacteria but little is known about the cat

143 n shows broad antibacterial activity against Gram-positive bacteria, but is also hemolytic and cytoto

144 ions and is evolutionarily conserved in many Gram-positive bacteria, but its function in M. tuberculo

145 a potent antibiotic against a broad range of Gram-positive bacteria, but its medical applications hav

146 er regulator of carbon source utilization in gram-positive bacteria, but the CcpA regulon remains ill

147 bumin (ALA) and oleic acid and kills several Gram-positive bacteria by a mechanism that bears resembl

148 It permeates the cell membranes of Gram-positive bacteria by binding to the cell wall precu

149 A broad range of gram-positive bacteria cause serious infections in the c

150 Gram-positive bacteria cause the majority of skin and so

151 Gram-positive bacteria colonize mucosal tissues, withsta

152 al functions of specific compounds, and that Gram-positive bacteria considered to be obligate aerobes

153 The cell wall of Gram-positive bacteria contains abundant surface-exposed

154 The cell wall of most Gram-positive bacteria contains equal amounts of peptido

155 Many Gram-positive bacteria coordinate cellular processes by

156 In Gram-positive bacteria, CPS linkage is to either the cyt

157 The virulence of many Gram-positive bacteria depends on cholesterol-dependent

158 th antibiotics that target Gram-negative and Gram-positive bacteria develop ameliorated psoriasiform

159 call NDA-1, contributes to the reduction of Gram-positive bacteria during early development and thus

160 In some gram-positive bacteria (e.g. Staphylococcus aureus), sor

161 ies have shown that ADEPs are active against Gram-positive bacteria (e.g., MRSA, VRE, PRSP (penicilli

162 itory concentration (MIC) was much lower for Gram positive bacteria (Enterococcus spp. and Staphyloco

163 However, in many Gram-positive bacteria, especially in fermicutes, RNAP i

164 oronate chemistry allows potent labelling of Gram-positive bacteria even in the presence of 10% serum

165 In Gram-positive bacteria, extracellular protein appendages

166 amined PrsA proteins encoded by a variety of Gram-positive bacteria for functional complementation of

167 rgest inhibition zones were observed against Gram-positive bacteria for halloysite samples.

168 ased on self-assembly of vancomycin (Van) on Gram-positive bacteria for imaging bacterial infection.

169 doxin reductase, a protein essential in many Gram-positive bacteria for maintaining the thiol-redox b

170 nel to other methods of identification of 20 Gram-positive bacteria, four antimicrobial resistance ge

171 ficiently removes multiple Gram-negative and Gram-positive bacteria, fungi and endotoxins from whole

172 The cell envelope of Gram-positive bacteria generally comprises two types of

173 Given that Gram-positive bacteria genomes encode a variety of sorta

174 ding Eukaryota, Homo sapiens, Viridiplantae, Gram-positive Bacteria, Gram-negative Bacteria and Virus

175 nd has broad-spectrum activity that includes gram-positive bacteria, gram-negative bacteria, anaerobe

176 numerous antibiotic resistance plasmids from Gram-positive bacteria, Gram-negative phage and the mobi

177 The cell wall of Gram-positive bacteria has been shown to mediate environ

178 though riboflavin precursor derivatives from Gram-positive bacteria have been characterized, some lev

179 o differences in cell wall structure, EVs in Gram-positive bacteria have been disregarded for decades

180 Gram-positive bacteria have developed secretion systems

181 Nonetheless, Listeria and other Gram-positive bacteria have evolved an impressively dive

182 Regulators of PBP activity in Gram-positive bacteria have yet to be discovered but are

183 The highest ranked Gram-positive bacteria (high priority) were vancomycin-r

184 The presence of Gram-positive bacteria in foodstuffs is a chronic worldw

185 ndant in the smokers at baseline and so were Gram-positive bacteria in the non-smokers (P <0.01).

186 has been widely used to treat infections of Gram-positive bacteria including Clostridium difficile a

187 antibiotic with activity against a range of Gram-positive bacteria including drug-resistant pathogen

188 cultures in patients with Gram-negative and Gram-positive bacteria, including 8/60 (13.3%) patients

189 found that auranofin is active against other Gram-positive bacteria, including Bacillus subtilis and

190 shown to play a role in the pathogenesis of Gram-positive bacteria, including E. faecium We previous

191 psin was bactericidal against a diversity of Gram-positive bacteria, including human pathogens such a

192 Gram-positive bacteria, including major clinical pathoge

193 aining domains are unexpectedly prevalent in Gram-positive bacteria, including many clinically releva

194 crobial activity against multidrug-resistant Gram-positive bacteria, including MRSA and VRE, rapid ti

195 robial agent; it performed well against many Gram-positive bacteria, including multidrug resistant st

196 It has been found mainly in Gram-positive bacteria, including pathogenic bacteria li

197 hat rTCP96 aggregates both Gram-negative and Gram-positive bacteria, including Staphylococcus aureus

198 y used antibiotics against gram-negative and gram-positive bacteria, including Staphylococcus aureus,

199 Many Gram-positive bacteria, including the human pathogen Lis

200 loped to overcome the acquired resistance in Gram-positive bacteria, intrinsic resistance in Gram-neg

201 ial activity against model Gram negative and Gram positive bacteria is reported for selected compound

202 at cyclic-di-adenosine monophosphate in live Gram-positive bacteria is a vita-PAMP, engaging the inna

203 The peptidoglycan that surrounds Gram-positive bacteria is affixed with a range of macrom

204 c IgG booster responses to Gram-negative and Gram-positive bacteria is contained solely within the B

205 Surface display of proteins by sortases in Gram-positive bacteria is crucial for bacterial fitness

206 Vancomycin resistance in Gram-positive bacteria is due to production of cell-wall

207 Amino acid availability in Gram-positive bacteria is monitored by T-box riboswitche

208 However, iron-sulfur cluster biogenesis in Gram-positive bacteria is not so well characterized, and

209 or example, increasing drug resistance among gram-positive bacteria is responsible for approximately

210 Inflammation caused by infection with Gram-positive bacteria is typically initiated by interac

211 The mechanism of persister formation in Gram-positive bacteria is unknown.

212 that modulates QS in both Gram-negative and Gram-positive bacteria, is phosphorylated by LsrK, and t

213 d cell shape, and, in the case of pathogenic Gram-positive bacteria, it lies at the interface between

214 By contrast, Ntox28 domains from Gram-positive bacteria lack C-terminal Gly-Tyr-Gly-Ile m

215 Horizontal gene transfer between Gram-positive bacteria leads to a rapid spread of virule

216 -1'-enyl, 2-acyl phospholipids) in anaerobic Gram-positive bacteria led to studies on the physical ch

217 Gram-positive bacteria like Bacillus and phytopathogen R

218 Export of cell surface pilins in Gram-positive bacteria likely occurs by the translocatio

219 in mechanism of action on gram-negative and gram-positive bacteria may be less pronounced than forme

220 peptides when the flies were challenged with Gram-positive bacteria Micrococcus luteus In this settin

221 Among Gram-positive bacteria, mortality was highest for methic

222 tive bacteria (n = 210) outnumbered those by Gram-positive bacteria (n = 142).

223 t activity and antibacterial effects against Gram-positive bacteria, namely methicillin-susceptible S

224 The O-acetylating enzyme in Gram-positive bacteria, O-acetyltransferase A (OatA), is

225 Pseudoalteromonas sp. strain CF6-2) can kill Gram-positive bacteria of diverse peptidoglycan (PG) che

226 sensitive and resistant Gram-negative and/or Gram-positive bacteria of new amphiphilic 3',4'-dialkyl

227 In contrast to other Gram-positive bacteria, only one single sortase enzyme,

228 s no cross-reactivity with other mollicutes, Gram-positive bacteria, or Gram-negative bacteria.

229 Gram-positive bacteria, particularly coagulase-negative

230 In Gram-positive bacteria, PCATs function both as maturatio

231 In Gram-positive bacteria, peptidoglycan is tens of nanomet

232 The DnaB primosomal protein from Gram-positive bacteria plays a key role in DNA replicati

233 Most low GC Gram-positive bacteria possess an essential walKR two-co

234 enteen CRBSIs were recurrent; infection with gram-positive bacteria predicted recurrence.

235 Gram-positive bacteria process and release small peptide

236 here enhances our understanding of how other Gram-positive bacteria produce essential components of t

237 Many Gram-positive bacteria produce lantibiotics, genetically

238 role in CMP-pseudaminic acid biosynthesis in Gram-positive bacteria provides a foundation to investig

239 function are broadly conserved among diverse Gram-positive bacteria, PrsA2 exhibits unique specificit

240 ream biological effects of EVs released from gram-positive bacteria remain poorly characterized.

241 Antimicrobial resistance in gram-positive bacteria remains a challenge in infectious

242 Adhesive pili in Gram-positive bacteria represent a variety of extracellu

243 highest activities against Gram-negative and Gram-positive bacteria, respectively.

244 for half a century but the possibility that Gram-positive bacteria secrete extracellular vesicles (E

245 basis for formation of the 100S complexes in Gram-positive bacteria, shedding light on the mechanism

246 Here we extend our study to Gram-positive bacteria showing that coupling game-theory

247 al strains, including both Gram-negative and Gram-positive bacteria, showing great potential for appl

248 In many Gram-negative and some Gram-positive bacteria, small regulatory RNAs (sRNAs) th

249 cond messenger predicted to be widespread in Gram-positive bacteria, some Gram-negative bacteria, and

250 rhinosinusitis (CRS) has been linked to the gram-positive bacteria Staphylococcus aureus (S. aureus)

251 They showed activity against two Gram-positive bacteria Staphylococcus aureus and Enteroc

252 We have found that Gram-positive bacteria Staphylococcus aureus and Enteroc

253 found to specifically inhibit the growth of Gram-positive bacteria Staphylococcus aureus with MIC(50

254 Among Gram-positive bacteria, Staphylococcus aureus were predo

255 antibacterial properties, especially against Gram-positive bacteria such as S. aureus.

256 of complement by FH6-7/Fc on the surface of Gram-positive bacteria such as S. pyogenes will enable p

257 Pheromones of many gram-positive bacteria, such as Bacillus and Streptococc

258 s exhibited antibacterial activities against gram-positive bacteria, such as Bacillus subtilis and St

259 In other gram-positive bacteria, such as Enterococcus faecalis, d

260 ied in multiple pilus gene clusters of other Gram-positive bacteria, suggesting that similar signalin

261 Gram-positive bacteria surround themselves with a thick

262 Nocardia exalbida, all the other 725 (99.7%) gram-positive bacteria tested were susceptible to vancom

263 acetic acid) inhibited all Gram-negative and Gram-positive bacteria tested.

264 They are more active against Gram positive bacteria than Gram negative bacteria; howe

265 treptococcus agalactiae) are beta-hemolytic, Gram-positive bacteria that are common asymptomatic colo

266 ghput scRNA-seq method for Gram-negative and Gram-positive bacteria that can resolve heterogeneous tr

267 Streptococcus agalactiae are beta-hemolytic gram-positive bacteria that colonize the lower genital t

268 treptogramins(2), potent antibiotics against Gram-positive bacteria that inhibit the bacterial riboso

269 tein export systems in mycobacteria and many Gram-positive bacteria that mediate a broad range of fun

270 Bacilli are ubiquitous low G+C environmental Gram-positive bacteria that produce a wide assortment of

271 environmental conditions, including, within Gram-positive bacteria, the stressosome complex that reg

272 SCH-79797, that kills both Gram-negative and Gram-positive bacteria through a unique dual-targeting m

273 tibody-conjugated AuNPs can readily identify Gram-positive bacteria through antibody-antigen recognit

274 ncubated with agonists of TLR2 (receptor for gram-positive bacteria), TLR4 (receptor for gram-negativ

275 ns that mediate the attachment of pathogenic Gram-positive bacteria to host cells.

276 rticles (AuNP) modified with monoclonal anti-Gram-positive bacteria to produce an immune-sensor.

277 The more penetrable Zg16(-/-) mucus allowed Gram-positive bacteria to translocate to systemic tissue

278 activated platelets and mediates adhesion of Gram-positive bacteria to various host cells.

279 Gram-negative and gram-positive bacteria use a variety of enzymatic pathwa

280 Gram-positive bacteria use reactive thioester-containing

281 ZG16 bound to and aggregated Gram-positive bacteria via binding to the bacterial cell

282 ed molecular pattern (PAMP) of extracellular gram-positive bacteria, via ester hydrolysis.

283 Unique to Gram-positive bacteria, wall teichoic acids are anionic

284 vation (up to 95%) against Gram-negative and Gram-positive bacteria was observed when curcumin-functi

285 delta, a small protein found in most Gram-positive bacteria was, for a long time, thought to

286 Gram-negative and Gram-positive bacteria were equally cultured.

287 Gram-positive bacteria were responsible for a high propo

288 tions in this study were caused by bacteria; Gram-positive bacteria were responsible for most cases.

289 Gram-positive bacteria were sensitive to vancomycin (27/

290 en between structurally similar molecules in gram-positive bacteria while also demonstrating the powe

291 nductance and renders it ineffective against Gram-positive bacteria while nevertheless enhancing its

292 a extracts were more effective in inhibiting Gram-positive bacteria while soybean extract exhibited s

293 oncentrations in different Gram-negative and Gram-positive bacteria, while its hemolytic activity rem

294 resistance seems to be universal across the Gram-positive bacteria, while the type of coselected tra

295 glycopolymers found on the cell wall of many Gram-positive bacteria, whose diverse surface structures

296 Promysalin acts on Gram-positive bacteria with a mechanism of action involv

297 pound also has high antibacterial potency on Gram-positive bacteria with an MIC versus wild type S. a

298 gle-cell transcriptomes of Gram-negative and Gram-positive bacteria with high purity and low bias, wi

299 e bacteria and lipoteichoic acids (LTA) from Gram-positive bacteria with host lipoprotein carriers in

300 edicine and nanotechnology.It is unclear how Gram-positive bacteria, with a thick cell wall, can rele