ライフサイエンスコーパス: horizontal gene transfer

1 to gene duplication and loss (and sometimes horizontal gene transfer).

2 pecies represents a unique model for natural horizontal gene transfer.

3 inhibitory effect of changes in the code on horizontal gene transfer.

4 promoted their distribution across phyla by horizontal gene transfer.

5 om Fusarium oxysporum f. vasinfectum through horizontal gene transfer.

6 sterol biosynthesis genes with bacteria via horizontal gene transfer.

7 rine nutrient cycles, and act as vectors for horizontal gene transfer.

8 lycosyltransferase (gtr) operons acquired by horizontal gene transfer.

9 eased in complexity via gene duplication and horizontal gene transfer.

10 , twitching motility, biofilm formation, and horizontal gene transfer.

11 ith implications for genetic engineering and horizontal gene transfer.

12 teria cannot become resistant by mutation or horizontal gene transfer.

13 ere acquired by one or both lineages through horizontal gene transfer.

14 nvironmental conditions and by the action of horizontal gene transfer.

15 brane (monoderms), an important mechanism of horizontal gene transfer.

16 lso influences its evolution by facilitating horizontal gene transfer.

17 of other strains, indicating acquisition by horizontal gene transfer.

18 ferent strains, with many likely acquired by horizontal gene transfer.

19 ntragenomic but can also be acquired through horizontal gene transfer.

20 ment of the SBF transcription factor through horizontal gene transfer.

21 al mutations but has never been reported via horizontal gene transfer.

22 on bacterial cellular differentiation during horizontal gene transfer.

23 on biases, suggesting their acquisitions via horizontal gene transfer.

24 lates bacterial mutation, recombination, and horizontal gene transfer.

25 to mycoplasmas and have been disseminated by horizontal gene transfer.

26 e TgtA5 family is consistent with widespread horizontal gene transfer.

27 ncer of AT-rich genetic material acquired by horizontal gene transfer.

28 e primary AMR mechanisms result from SNPs or horizontal gene transfer.

29 nerally assumed that antibiotics can promote horizontal gene transfer.

30 ene tree error correction in the presence of horizontal gene transfer.

31 of a resistant lineage following mutation or horizontal gene transfer.

32 phylogenetic trees, even in the presence of horizontal gene transfer.

33 ly applicable to gene families unaffected by horizontal gene transfer.

34 omic plasticity, most probably maintained by horizontal gene transfer.

35 evolutionary escape through mutagenesis and horizontal gene transfer.

36 to bacteria that acquire the systems through horizontal gene transfer.

37 in Acanthamoeba castellanii probably through horizontal gene transfer.

38 diverse, and include adhesion, motility, and horizontal gene transfer.

39 interactions, and extensive lineage-specific horizontal gene transfer.

40 r of toxin-immunity pairs that is shared via horizontal gene transfer.

41 uggesting that the phages were integrated by horizontal gene transfer.

42 n, with lineage III being the best donor for horizontal gene transfer.

43 es that appear to be rearrayed in nature via horizontal gene transfer.

44 r RNA-based interactions between species and horizontal gene transfer.

45 ated organelles and demonstrates the role of horizontal gene transfer.

46 mbination, gene loss, gene duplications, and horizontal gene transfer.

47 ial resistance genes (ARGs) may be shared by horizontal gene transfer.

48 t hosts of resistance genes acquired through horizontal gene transfer.

49 les in antibiotic resistance, virulence, and horizontal gene transfer.

50 ence for transformation is a primary mode of horizontal gene transfer.

51 ay key roles in host ecology, evolution, and horizontal gene transfer.

52 of traits during this conserved mechanism of horizontal gene transfer.

53 s via host lysis and drive evolution through horizontal gene transfer.

54 implications for understanding evolution by horizontal gene transfer.

55 e mobile genetic elements that contribute to horizontal gene transfer.

56 atibility between nucleus and cytoplasm, and horizontal gene transfer.

57 argets of Cas nucleases but also can promote horizontal gene transfer.

58 jor role in bacterial evolution by promoting horizontal gene transfer.

59 tegies of host infection and phage-dependent horizontal gene transfer.

60 onary events including gene duplications and horizontal gene transfers.

61 mids drive genomic diversity in bacteria via horizontal gene transfer [1, 2]; nevertheless, explainin

62 obial genomes and often display hallmarks of horizontal gene transfer(10-12), the drivers of CRISPR d

63 baumannii, a species known to undergo rapid horizontal gene transfer, 16.2% of isolate pairs conside

64 Horizontal gene transfer accelerates bacterial adaptatio

65 erating ESBL-producing clones with continued horizontal gene transfer across genera, addressing this

66 ple gene acquisitions or losses and possibly horizontal gene transfer after the ancestral separation

67 Horizontal gene transfer allows organisms to rapidly acq

68 genase (DcmA) that has been acquired through horizontal gene transfer and allows the strain to grow o

69 s displayed upregulation of genes related to horizontal gene transfer and antibiotic resistance.

70 nas fluorescens (PfmqsA) is acquired through horizontal gene transfer and binds to a slightly differe

71 tion of molecular features are likely due to horizontal gene transfer and changes in serogroup distri

72 Frequent horizontal gene transfer and chromosomal integration eve

73 It represents one mode of horizontal gene transfer and contributes to the spread o

74 e gain by genomes from other species through horizontal gene transfer and differential gene loss amon

75 Horizontal gene transfer and gene duplication allowed th

76 mes is highly dynamic and involves extensive horizontal gene transfer and gene loss(1-4).

77 uence of genetic exchange mechanisms such as horizontal gene transfer and genetic recombination.

78 es that impart genetic isolation by impeding horizontal gene transfer and now depend on the use of sy

79 tionary outcomes, with implications for both horizontal gene transfer and rational strain design.

80 e, and reconstruction of species trees under horizontal gene transfer and recombination events.

81 Cattle adaptation was associated with horizontal gene transfer and significant gene gain and l

82 of magnitude and evidence of recombination, horizontal gene transfer and variable fragment numbers.

83 assess the importance of extracellular DNA, horizontal gene transfer and viruses for the generation

84 tic environment is considered a hot-spot for horizontal gene transfer, and lake sediments offer the o

85 obally important microbes through mortality, horizontal gene transfer, and metabolic reprogramming.

86 esistance to viruses, genetic isolation from horizontal gene transfer, and prevention of environmenta

87 Natural transformation mediates horizontal gene transfer, and thereby promotes exchange

88 ts but also is due to their rapid evolution, horizontal gene transfers, and intimate interactions wit

89 ions of viral cross-kingdom interactions and horizontal gene transfer are proposed.

90 utative non-metazoan origin, indicating that horizontal gene transfers are frequent within this group

91 Plasmids are vehicles for horizontal gene transfer between bacteria, and in Neisse

92 plays a clonal population structure in which horizontal gene transfer between different lineages is e

93 Horizontal gene transfer between Gram-positive bacteria

94 The data suggest that horizontal gene transfer between vascular plants is not

95 -phage Acr proteins, demonstrating a role in horizontal gene transfer bolstered by broad-spectrum CRI

96 tance was independent of ARG acquisition via horizontal gene transfer but instead relied on antibioti

97 lutionary modes that differ in the extent of horizontal gene transfer by an order of magnitude.

98 mote the spread of antibiotic resistance via horizontal gene transfer by natural transformation.

99 ClpG disaggregase homologs acquired through horizontal gene transfer by the species Pseudomonas aeru

100 for the acquisition of secreted proteins by horizontal gene transfer can help predict emerging zoono

101 Horizontal gene transfer can speed up adaptive evolution

102 an additional 30 genus- and species-specific horizontal gene transfer candidates that might have cont

103 e effects of autoimmunity and curtailment of horizontal gene transfer caused by the defense systems a

104 Furthermore, inferences of horizontal gene transfer connected viral lineages to div

105 wed the definition of gene gains and losses, horizontal gene transfers, conservation and evolutionary

106 Recombination, reassortment and horizontal gene transfer constitute examples of pervasiv

107 We propose that GH131-family expansions and horizontal-gene transfers contributed to this adaptation

108 Horizontal gene transfer contributes 3.5 % of the predic

109 in vB_RpoMi-Mini genome further implies that horizontal gene transfer could be an important driving f

110 and demonstrates a novel mechanism by which horizontal gene transfer directly impacts virulence thro

111 Horizontal gene transfer disrupts the phylogenetic signa

112 scuous spread of the mcr-1 gene by efficient horizontal gene transfer dominated by a limited number o

113 iral integration, a fundamental mechanism of horizontal gene transfer driving prokaryotic evolution,

114 Natural genetic transformation via horizontal gene transfer enables rapid adaptation to dyn

115 this lineage originated from a single large horizontal gene transfer event between CC23 and the hype

116 -adding enzymes of animals originated from a horizontal gene transfer event in the stem lineage of Ho

117 lysis of the Cpt gene family suggests that a horizontal gene transfer event introduced this gene into

118 that it may have been involved in an ancient horizontal gene-transfer event.

119 ollen transmission of organelles or multiple horizontal gene transfer events as the source of the mit

120 ding genes were acquired through independent horizontal gene transfer events from different donor bac

121 ell wall-modifying enzymes point at multiple horizontal gene transfer events from soil bacteria to ba

122 ian microbiota by engineering community-wide horizontal gene transfer events in situ.

123 We also detected putative horizontal gene transfer events in the genome of R. micr

124 In addition to endosymbiotic gene transfer, horizontal gene transfer events occurring before, during

125 xpansin phylogeny shows evidence of multiple horizontal gene transfer events within and between bacte

126 exchange genetic material via phage-mediated horizontal gene transfer events, but, in turn, are vulne

127 in Earth history as a result of a series of horizontal gene transfer events, explaining the lack of

128 thotype Ro1, identify putative effectors and horizontal gene transfer events, map gene expression thr

129 is results from gene loss, recombination and horizontal gene transfer events.

130 lites and a considerable number of potential horizontal gene transfer events.

131 s indicate that the range for virus-mediated horizontal gene transfer extends beyond hosts to nonhost

132 17%) of genes originating through functional horizontal gene transfer (fHGT) and speculated that fHGT

133 o adapt to novel environments through single horizontal gene transfers (followed by regulatory adapta

134 suggest a previously unidentified benefit of horizontal gene transfer for bacteria.

135 Despite the importance of horizontal gene transfer for rapid bacterial evolution,

136 oniae, an important human pathogen, mediates horizontal gene transfer for the development of drug res

137 SlopeTree corrects for horizontal gene transfer, for composition variation and

138 last (apPOL) was putatively acquired through horizontal gene transfer from a bacteriophage and is cla

139 analyses have indicated their acquisition by horizontal gene transfer from a eukaryotic host.

140 n was co-opted by competent bacteria through horizontal gene transfer from a eukaryotic source, and l

141 ase (GS) III in the prasinophytes evolved by horizontal gene transfer from a member of the heterokont

142 Nitrosotalea common ancestor via horizontal gene transfer from acidophilic representative

143 related Aquificaceae likely acquired HARP by horizontal gene transfer from an archaeon.

144 In the spirit of the times, horizontal gene transfer from bacteria to eukaryotes has

145 Although documented instances of horizontal gene transfer from bacteria to eukaryotes rem

146 Twenty-four cases of horizontal gene transfer from bacterial sources were fou

147 mic deletion and insertion events as well as horizontal gene transfer from distant fungi.

148 s: some of them were likely acquired through horizontal gene transfer from extremophile bacteria whic

149 nts, including genes originally obtained via horizontal gene transfer from fungi and bacteria, contri

150 Our results provide evidence that horizontal gene transfer from Fusarium to Vd991 contribu

151 es (GT108) that have likely been acquired by horizontal gene transfer from gram-positive bacteria.

152 Horizontal gene transfer from plants to microbes and bet

153 Horizontal gene transfer from retroviruses to mammals is

154 We find horizontal gene transfers from bacteria and expansion of

155 c criteria that help to distinguish putative horizontal gene transfers from the admixture of genes fr

156 l differences in gene content resulting from horizontal gene transfer, gene duplication and gene loss

157 Our method efficiently models horizontal gene transfers, gene duplications and losses,

158 This mechanism of horizontal gene transfer has been widely linked to the a

159 Acquisition of genes through horizontal gene transfer (HGT) allows microbes to rapidl

160 Horizontal gene transfer (HGT) among bacteria, archaea,

161 Despite the importance of phages in driving horizontal gene transfer (HGT) among pathogenic bacteria

162 Genome-wide horizontal gene transfer (HGT) analysis showed P. persal

163 inary competency to acquire exogenous DNA by horizontal gene transfer (HGT) and adapt them into its g

164 and phylogenomics are subject to noise from horizontal gene transfer (HGT) and bias from convergence

165 Horizontal gene transfer (HGT) and gene loss result in r

166 rokaryotic genomic islands (GIs) involved in horizontal gene transfer (HGT) are the classical pathoge

167 ogical treatment can mitigate this path, but horizontal gene transfer (HGT) between bacteria also occ

168 Horizontal gene transfer (HGT) confers the rapid acquisi

169 This particular type of horizontal gene transfer (HGT) could play a role in plan

170 Horizontal gene transfer (HGT) drives the evolution of r

171 hat mosquito RIP genes derived from a single Horizontal Gene Transfer (HGT) event, probably from a cy

172 re similar to CE1s of bacteria, suggesting a horizontal gene transfer (HGT) event.

173 rived from Actinobacteria through an ancient horizontal gene transfer (HGT) event.

174 omain-encoding genes through two independent horizontal gene transfer (HGT) events before the origin

175 most recent studies instead support multiple horizontal gene transfer (HGT) events to generate extant

176 ave been reported to have elevated levels of horizontal gene transfer (HGT) events, but how important

177 Horizontal gene transfer (HGT) facilitates spead of anti

178 her show that AIG1 may have been acquired by horizontal gene transfer (HGT) from a rhizobial fungus.

179 s that Th. elongatum has gained Fhb7 through horizontal gene transfer (HGT) from an endophytic Epichl

180 symmetron and Branchiostoma) acquired GFP by horizontal gene transfer (HGT) from copepods or cnidaria

181 nted, namely longer intergenic regions, post-horizontal gene transfer (HGT) gene fusions fostering co

182 Horizontal gene transfer (HGT) has been suggested to pro

183 Horizontal gene transfer (HGT) has long been seen as a c

184 ished cases that support the hypothesis that horizontal gene transfer (HGT) has played a role in the

185 ar gene transfer (IGT) or between species by horizontal gene transfer (HGT) has played an important r

186 ex." This assumes without justification that horizontal gene transfer (HGT) in bdelloids precludes th

187 The role and extent of horizontal gene transfer (HGT) in eukaryotes are hotly d

188 Natural transformation is one mechanism of horizontal gene transfer (HGT) in Vibrio cholerae, the c

189 GTree database provides putative genome-wide horizontal gene transfer (HGT) information for 2472 comp

190 nsformation, represents a major mechanism of horizontal gene transfer (HGT) involved in the acquisiti

191 Horizontal gene transfer (HGT) is a major driving force

192 Horizontal gene transfer (HGT) is an important mechanism

193 Although horizontal gene transfer (HGT) is common in angiosperm m

194 Horizontal gene transfer (HGT) is frequent in parasitic

195 Horizontal gene transfer (HGT) is the non-inherited acqu

196 Horizontal gene transfer (HGT) is the sharing of genetic

197 Horizontal gene transfer (HGT) is the transfer of geneti

198 While horizontal gene transfer (HGT) is well documented in bac

199 Horizontal gene transfer (HGT) is widespread in the evol

200 cteria can exchange genetic material through horizontal gene transfer (HGT) mediated by plasmids and

201 Here, we investigate the in vivo horizontal gene transfer (HGT) of blaOXA-48 from Klebsie

202 Horizontal gene transfer (HGT) of mobile genetic element

203 Horizontal gene transfer (HGT) plays a key role in bacte

204 Horizontal gene transfer (HGT) plays a major role in the

205 Horizontal gene transfer (HGT) plays an important role i

206 microbiomes is lacking, with most studies of horizontal gene transfer (HGT) relying on bioinformatic

207 genes for kleptoplast-targeted proteins via horizontal gene transfer (HGT) that are not derived from

208 ns, making them prone to viral predation and horizontal gene transfer (HGT) through transformation an

209 Evidence of horizontal gene transfer (HGT) was observed in four indi

210 s from E. coli through several mechanisms of horizontal gene transfer (HGT), including conjugation an

211 Horizontal gene transfer (HGT), or the transfer of genes

212 Horizontal gene transfer (HGT), the movement of genetic

213 he gut, the invading strain evolves by rapid horizontal gene transfer (HGT), which precedes and outwe

214 ently happens by macrogenomic events such as horizontal gene transfer (HGT).

215 represented by bacteria capable of extensive horizontal gene transfer (HGT).

216 are event, with only a few known examples of horizontal gene transfer (HGT).

217 t also by acquiring foreign DNA, also called horizontal gene transfer (HGT).

218 ferns acquired neochrome from hornworts via horizontal gene transfer (HGT).

219 partly obscured by the massive influence of horizontal gene transfer (HGT).

220 nce of multidrug-resistant pathogens through horizontal gene transfer (HGT).

221 lasmids, promote bacterial evolution through horizontal gene transfer (HGT).

222 tutes a clear example of an ancient event of Horizontal Gene Transfer (HGT).

223 The contribution of horizontal gene transfers (HGTs) from other bacteria to

224 ic elements that contribute substantively to horizontal gene transfer, host adaptation, and virulence

225 th of bacterial hosts containing ARGs and/or horizontal gene transfer immediately following slurry ap

226 val in extreme environments, and the role of horizontal gene transfer in animal evolution.

227 Our work shows that horizontal gene transfer in bacteria can be promoted by

228 n in the chromosome) is a major mechanism of horizontal gene transfer in bacteria.

229 Transformation is a widespread mechanism of horizontal gene transfer in bacteria.

230 ate population diversity, recombination, and horizontal gene transfer in closely related Bp isolates,

231 transformation (NT) is a major mechanism of horizontal gene transfer in microbial species that promo

232 CRISPR-Cas provides a barrier to horizontal gene transfer in prokaryotes.

233 patterns of plasmids, reveals the impact of horizontal gene transfer in rapidly generating new patho

234 We also provide evidence for horizontal gene transfer in the mammalian gastrointestin

235 ombination, indicating an important role for horizontal gene transfer in the recent evolution of pQBR

236 These results demonstrate the role of horizontal gene transfer in the recent metabolic innovat

237 utionary biology and biotechnology, enabling horizontal gene transfer in the wild and heterologous ex

238 rial appendages that play important roles in horizontal gene transfer, in spread of antibiotic resist

239 Horizontal gene transfer is a fundamental process in bac

240 Gene gain by horizontal gene transfer is a major pathway of genome in

241 Horizontal gene transfer is a means by which bacteria, a

242 Horizontal gene transfer is an important evolutionary me

243 Horizontal gene transfer is central to microbial evoluti

244 t a nuclear-encoded protein resulting from a horizontal gene transfer is targeted to a bacterial symb

245 Horizontal gene transfer is the primary driver in the di

246 ltiple ice binding proteins through putative horizontal gene transfer likely contributed to the origi

247 sexual reproduction is unknown in the FOSC, horizontal gene transfer may contribute to the observed

248 tribution of antibiotics to the promotion of horizontal gene transfer may have been overestimated.

249 s based on the protease domain suggests that horizontal gene transfer may have occurred from a single

250 s based on the protease domain suggests that horizontal gene transfer might have occurred from an ssR

251 k highlights an important limiting factor in horizontal gene transfer, namely, the capacity of the re

252 cusing on the primary evolutionary forces of horizontal gene transfer, natural selection, and migrati

253 E grouped YSLPVs with algae, suggesting that horizontal gene transfer occurred between giant viruses

254 ing adsorption or an increased potential for horizontal gene transfer of ARGs in the biofilm.

255 ogens and methanotrophs, along with frequent horizontal gene transfer of mcr genes between alkanotrop

256 r words, there must be pervasive and ongoing horizontal gene transfer of self-splicing introns into e

257 e rapid evolution of bacterial pathogens via horizontal gene transfer of virulence determinants.

258 the effect of antibiotic concentrations and horizontal gene transfer on risk; (2) compute total risk

259 of metabolic innovations were facilitated by horizontal gene transfers on earlier phylogenetic branch

260 The acquisition of new pathways, through horizontal gene transfer or genetic engineering, can hav

261 the safeguard by spontaneous mutagenesis or horizontal gene transfer, or because they can be circumv

262 n resistance in S. aureus can emerge through horizontal gene transfer originating from coagulase-nega

263 t miropin was acquired from the host through horizontal gene transfer, perhaps facilitated by the lon

264 Horizontal gene transfer permits rapid dissemination of

265 islands, e.g. DNA fragments that facilitate horizontal gene transfer phenomena, were identified.

266 f these enzymes and their paralogs, in which horizontal gene transfer played an important role.

267 Horizontal gene transfer plays a crucial role in microbi

268 Horizontal gene transfer plays a major role in bacterial

269 Horizontal gene transfer plays a major role in microbial

270 Horizontal gene transfer (primarily conjugation) could e

271 pproaches towards studying endosymbiotic and horizontal gene transfer processes, discusses the new kn

272 The acquisition of genes by horizontal gene transfer provided new routes to handle t

273 cule repertoires of both have benefited from horizontal gene transfer, Pseudonocardia spp. have relie

274 ng that moderate selection pressure and high horizontal gene transfer rate are necessary to generate

275 are genetic as well as ecological drivers of horizontal gene transfer rates.

276 the mechanisms by which antibiotics modulate horizontal gene transfer remain poorly understood.

277 accurate inference of gene trees affected by horizontal gene transfer remains a largely unaddressed p

278 ion events, natural selection, and pervasive horizontal gene transfer result in population admixture

279 genes (ARGs) can spread among pathogens via horizontal gene transfer, resulting in imparities in the

280 ibiotics directly regulate the efficiency of horizontal gene transfer, serve as a selection force to

281 So, through the obtaining of this GI by horizontal gene transfer, strain SQR9 not only acquired

282 called pili for diverse behaviors, including horizontal gene transfer, surface sensing, motility, and

283 mong bdelloid rotifers is more likely due to horizontal gene transfer than to meiotic sex." This assu

284 and evolutionary drivers of and barriers to horizontal gene transfer that are likely to structure pa

285 CRISPR-Cas systems including their effect on horizontal gene transfer that can be either inhibitory o

286 Horizontal gene transfer through natural transformation

287 hage genomes rapidly evolve via mutation and horizontal gene transfer to counter evolving bacterial h

288 The horizontal gene transfer to loss ratio, but not duplicat

289 izable plasmid (pMobErm51), or both enabling horizontal gene transfer to susceptible organisms and co

290 ngeal glands, some of which were acquired by horizontal gene transfer, to manipulate host processes a

291 Horizontal gene transfer via plasmid conjugation is a ma

292 ed that pirAB(vp) may be lost or acquired by horizontal gene transfer via transposition or homologous

293 This horizontal gene transfer was mediated by a fraction of e

294 Ten cases of horizontal gene transfer were identified with evidence f

295 ed a 24 kb capsule synthesis island (cps) by horizontal gene transfer which consists of a synthetic l

296 yet several catalytic domains originated via horizontal gene transfer with gut bacteria.

297 res are characteristically mosaic, driven by horizontal gene transfer with other phages and host geno

298 erred events of homologous recombination and horizontal gene transfer within 79 bacterial species.

299 monstrate the role of the oral resistome and horizontal gene transfer within and between commensals i

300 e of function and ecology, underscoring that horizontal gene transfer without extensive regulatory ch