ライフサイエンスコーパス: life cycle

1 l C. jejuni factors essential throughout its life cycle.

2 ave focused on single stages of the parasite life cycle.

3 y vital roles in all the stages of the viral life cycle.

4 ication and likely other stages of the viral life cycle.

5 mRNAs were imaged throughout their complete life cycle.

6 y every step in the early phase of the viral life cycle.

7 vigorous seedling is crucial in the plant's life cycle.

8 17 has unique characteristics and an unusual life cycle.

9 yces to deviate from its classically-defined life cycle.

10 optimal E1-E2 replication and for the viral life cycle.

11 arget during the maintenance stage of the PV life cycle.

12 the cell during different stages of the KSHV life cycle.

13 profound effects at all stages of the plant life cycle.

14 th a complex, aquatic-terrestrial (biphasic) life cycle.

15 V DNA replication, a central part of the JCV life cycle.

16 RNA genome and therefore is central for its life cycle.

17 quired for the different stages of the viral life cycle.

18 isoforms have differential roles in the bleb life cycle.

19 rget this essential step of the dengue virus life cycle.

20 nctions of these ncRNAs may impact the viral life cycle.

21 isperse geographically via the D. discoideum life cycle.

22 onment to time critical transitions in their life cycle.

23 afety of novel therapeutics throughout their life cycle.

24 udy a post-entry role of endocytosis in HCMV life cycle.

25 formation are changed during an entire algal life cycle.

26 evolution of a fish species with an uncommon life cycle.

27 xan actin is important during the parasite's life cycle.

28 production at different stages of the viral life cycle.

29 ation of the parasite throughout its complex life cycle.

30 ynamic and plays multiple roles in the viral life cycle.

31 conditions to which it is exposed during its life cycle.

32 ptional network that controls the Plasmodium life cycle.

33 tness across models reflecting stages in its life cycle.

34 ts metabolism in two different stages of the life cycle.

35 ferent life-history stages across the annual life cycle.

36 ntial to regulate this key part of the viral life cycle.

37 developmental decisions throughout the plant life cycle.

38 r protease activity for the remainder of its life cycle.

39 ng poxviruses and is essential for the viral life cycle.

40 y, cell entry, and other stages of the viral life cycle.

41 ule that plays a central role in the biofilm life cycle.

42 understanding of the hepatitis C virus (HCV) life cycle.

43 ric division herald the start of the plant's life cycle.

44 s that target specific stages of the malaria life cycle.

45 sical and chemical analysis during the fruit life cycle.

46 , and affects almost every stage of the mRNA life cycle.

47 displayed by Rep68 and Rep78 during the AAV life cycle.

48 llular and extracellular stages of the virus life cycle.

49 infected hosts as an integral part of their life cycle.

50 IV-1 infection by interfering with the viral life cycle.

51 and characterized their effects on the viral life cycle.

52 V replication at an early stage of the viral life cycle.

53 in intercellular communication and the viral life cycle.

54 which is critical to completion of the virus life cycle.

55 inant cause of environmental impact over the life cycle.

56 eotactic response at some stage during their life cycle.

57 for a previously unknown event in the viral life cycle.

58 ts of plant development throughout a plant's life cycle.

59 ted for each stage of the algae-derived fuel life cycle.

60 s and provide energy to complete the plant's life cycle.

61 V genome, may play a significant role in HBV life cycle.

62 f DNA bacteriophages play essential roles in life cycles.

63 , have acquired different roles in the virus life cycles.

64 renewable feedstocks and exhibit closed-loop life cycles.

65 osine to inosine modifications in retroviral life cycles.

66 odifications may play in more complex fungal life cycles.

67 er than a driver, of incipient multicellular life cycles.

68 es due to their small size and often complex life cycles.

69 t diverse viruses at various stages of their life cycles.

70 es across ontogeny in organisms with complex life cycles.

71 is a herpesvirus with both lytic and latent life cycles.

72 different niches in order to complete their life-cycles.

73 mbda of Escherichia coli has two alternative life cycles after infection-host survival with lysogen f

74 simple terrestrial-only (direct developing) life cycle also had a higher rate of adult body form evo

75 ts a population bottleneck in the Plasmodium life cycle and a key intervention target of ongoing effo

76 nstitutes a molecular link between the cilia life cycle and cell-division cycle.

77 cription of a carrier protein throughout its life cycle and demonstrate how a network of dynamic resi

78 In this overview, we review the EBV life cycle and discuss our current understanding of the

79 reatments targeting this aspect of the viral life cycle and for the production of new viral particle-

80 n Nef controls multiple aspects of the viral life cycle and host immune response, making it an attrac

81 ility in order to better understand the PEDV life cycle and identify suitable targets for antiviral o

82 gs will advance our understanding of the HEV life cycle and improve diagnosis.

83 These genes are integral to the baculovirus life cycle and may be good focal genes for developing ba

84 he host genome is not required for the viral life cycle and might not be necessary for cellular trans

85 l mechanisms modulating LTCC trafficking and life cycle and provide proof of concept for the use of C

86 S-HUHEP mice, HBV infection completes a full life cycle and recapitulates some of the immunopathology

87 nctionally linked to particular steps of HCV life cycle and related viral host dependencies.

88 The controllable life cycle and the genome sequence of P. multistriata al

89 tifying host proteins critical for the viral life cycle and/or pathogenesis represents a useful strat

90 conserved motile system is critical to their life cycles and drives directional gliding motility betw

91 ET) family regulate multiple stages of viral life cycles and provide promising intervention targets.

92 micro-ecological challenges of its enzootic life-cycle and long-term residence in the tissues of its

93 small genome size (1 C = 0.34 pg), an annual life cycle, and greater genetic diversity as assessed by

94 e development is a crucial step in the plant life cycle, and the timing of this transition is an impo

95 During their life cycle, apicomplexan parasites, such as the malaria

96 ation interventions as part of an integrated life cycle approach to development.

97 These results highlight that a more complete life-cycle approach that incorporates the possibility of

98 formation, essential steps in the Plasmodium life cycle, are targets of existing antimalarials.

99 Unlike animals, plants can pause their life cycle as dormant seeds.

100 Plant SBTs affect all stages of the life cycle as they contribute to embryogenesis, seed dev

101 are expressed during the Mesorhizobium lo ti life cycle as well as no information concerning their na

102 ification in nearly every aspect of the mRNA life cycle, as well as in various cellular, developmenta

103 While life cycle assessment (LCA) can potentially capture loca

104 of 100 years and applied the factors to five life cycle assessment (LCA) case studies of bioproducts.

105 production and impacts into a process-based life cycle assessment (LCA) context.

106 Life cycle assessment (LCA) has been used by many resear

107 ap in the current literature, we completed a life cycle assessment (LCA) of the decentralized water s

108 Life cycle assessment (LCA) results are inevitably subje

109 While several life cycle assessment (LCA) studies have assessed such p

110 Many companies use life cycle assessment (LCA) to evaluate their sustainabi

111 The data were analysed using an advanced life cycle assessment (LCA) tool(9), yielding metrics of

112 To this end, a life cycle assessment (LCA) was performed to evaluate th

113 circumvent the limitations of scenario-based life cycle assessment (LCA), we develop a multiobjective

114 Here, a cradle-to-gate life cycle assessment for the production of 15 different

115 We present a Life Cycle Assessment of coal-fired electricity generati

116 Life cycle assessment on the phytomining approaches desc

117 this research uses biokinetics modelling and life cycle assessment philology to explore this notion,

118 Previous transportation fuel life cycle assessment studies have not fully accounted f

119 Here, we therefore propose a framework using life cycle assessment that enables the quantification of

120 Here, life cycle assessment was used to compare 10 environment

121 Using attributional life cycle assessment, this project evaluates the enviro

122 hetic methodologies and processes with their life cycle assessment.

123 and decision-making: risk analysis (RA) and life-cycle assessment (LCA).

124 k scale are regularly used as input data for life cycle assessments and techno-economic analyses for

125 lving inconsistencies in the results between life-cycle assessments and soil science studies.

126 ndicates that this complex regulates the ALV life cycle at the level of integration.

127 sociated with human diseases, control the L1 life cycle at the transcriptional or the post-transcript

128 differentially expressed not only during the life cycle but also within the cell as part of the solub

129 ities against three stages of the parasite's life cycle, but a lengthy synthetic route to these compo

130 NS5A has multiple functions during the virus life cycle, but the biochemical details of these roles r

131 lerae's survival during its aquatic and host life cycles, but also influences its evolution by facili

132 fidelity is closely monitored throughout its life cycle by multiple mitochondrial quality control pro

133 by evaluating groups in the context of their life cycle can we unravel the evolutionary trajectory of

134 These differences in life cycle complexity explain the variations in vertebra

135 In this regard, the evolution of life cycle complexity promotes phenotypic diversity.

136 volution can follow long-term transitions in life cycle complexity, which may reflect underlying stag

137 of developmental patterns, including complex life cycles composed of morphologically disparate stages

138 xamples and specifications, and discuss data life cycle considerations.

139 oadway drainage design parameters to LCA and life cycle costing (LCC) under uncertainty.

140 Societal life-cycle costing (S-LCC) provides a quantitative frame

141 However, the impact of fuel savings on life cycle costs and GHG emissions depends on fuel price

142 esulting systems are optimal with respect to life cycle costs and water deliveries.

143 d Tillman system (mean of 44% vs 22% of unit life cycle costs).

144 riety of assays used to dissect the poxvirus life cycle demonstrate that bisbenzimides inhibit viral

145 Completion of a plant's life cycle depends on successful prioritization of signa

146 to simulate temperature- and food-dependent life cycle development of C. glacialis annually from 198

147 e chromatin proteomic analyses of the entire life cycle development of malaria parasites.

148 highly dynamic histone PTM landscape during life cycle development, with a set of histone PTMs (H3K4

149 y for Eimeria in relation to its specialized life cycle, distribution across the globe, and the chall

150 ct species (a fast life-cycle mayfly, a slow life-cycle dragonfly and an ostracod) found optimal trad

151 significant burdens to the environment from life cycle emissions associated with their production, b

152 se studies, in conjunction with estimates of life cycle environmental and health benefits of nanopart

153 te change is altering the seasonal timing of life cycle events in organisms across the planet, but th

154 nces, few studies have tested the impacts of life cycle evolution on broad-scale patterns of trait di

155 lso demonstrate a critical role in the viral life cycle for the second receptor binding region of the

156 tion in acutely infected mice, extending the life cycle from 24 h to 40 h.

157 nts of A. edgeworthii grown throughout their life cycle from aerial seeds (ASP) and from subterranean

158 biological mechanisms controlling macroalgal life cycles - from the production of germ cells to the g

159 es across generations suggest that different life cycle genotypes can coexist in natural populations.

160 not purchase alternative fuels unless their life cycle GHG emissions are less than those of conventi

161 The LCA case studies showed that the total life cycle GHG emissions were closely related to GWPbio

162 nabling coal-based electricity with net-zero life-cycle GHG.

163 The literature analyzing the fuel saving, life cycle greenhouse gas (GHG) emission, and ownership

164 y Laboratory produced a well-to-wheels (WTW) life cycle greenhouse gas analysis of petroleum-based fu

165 l, and generally positive, and can influence life-cycle greenhouse gas emissions of switchgrass ethan

166 s with a simple, aquatic-only (paedomorphic) life cycle had an increased rate of vertebral column and

167 Detailed analyses of the HEV life cycle has been hampered by the lack of an efficient

168 ntal impacts on the environment, the plastic life cycle has drawn increasing attention.

169 al role for SIRT1 in regulation of the HPV31 life cycle; here, we report that SIRT1 can directly regu

170 poradic bouts of replication to complete its life cycle, however, remains unknown.

171 arthropod host is just as critical to their life cycle, however.

172 Notably, Delta342 impaired the viral life cycle; however, replicative fitness was restored by

173 cupational exposures to organic chemicals in life cycle impact assessment (LCIA) by building on the c

174 ts in air pollution reduction strategies and life cycle impact assessments.

175 as an initial screening tool for estimating life-cycle impacts of chemicals for certain impact categ

176 information, we trained multilayer ANNs for life-cycle impacts of chemicals using six impact categor

177 cial neural network (ANN) models to estimate life-cycle impacts of chemicals.

178 y increasing, while our understanding of the life-cycle impacts of these chemicals lags considerably.

179 that may have a substantial influence on the life-cycle impacts.

180 potential role of this protein in the viral life cycle.IMPORTANCE HPV are causative agents in a numb

181 atent and the replicative stages of the KSHV life cycle.IMPORTANCE Kaposi's sarcoma-associated herpes

182 ty in the capsid assembly stage of the HIV-1 life cycle.IMPORTANCE The HIV-1 capsid protein is an att

183 expression throughout the Plasmodium berghei life cycle in both mammalian and insect hosts.

184 ajority of these molecules during the fungal life cycle in nature remain elusive.

185 hts novel targets for interrupting the virus life cycle in substance using hosts.

186 it is unknown how plants that complete their life cycle in the forest understory and are shade tolera

187 Despite the vital role of the intracellular life cycle in the pathogenesis of the bacteria, the rang

188 hogen Trypanosoma brucei undergoes a complex life cycle in the tsetse fly.

189 regulates several light responses during the life cycle, including de-etiolation, and is also involve

190 However, fundamental aspects of the AAV life cycle, including how AAV interacts with host cellul

191 UH can affect the entire life cycle, including survival, development and reproduc

192 into several other stages of the poliovirus life cycle, including the mechanism of receptor-triggere

193 ll culture systems to study the complete HBV life cycle, including virus spread.

194 blished under the auspices of the UNEP/SETAC Life Cycle Initiative a coupled indoor-outdoor emission-

195 To minimize the variation in life cycle inventory calculations, a harmonized inventor

196 An ex-ante life cycle inventory was developed for single walled car

197 petroleum refinery model, Petroleum Refinery Life-cycle Inventory Model (PRELIM), that estimates ener

198 We perform a life-cycle inventory of electricity and chemical inputs

199 In other systems, the RNA life cycle involves surveillance mechanisms, however, th

200 ease, is a protozoan parasite with a complex life cycle involving a triatomine insect and mammals.

201 spp. and Toxoplasma gondii, undergo complex life cycles involving multiple stages with distinct biol

202 Onset of the lytic phase in the KSHV life cycle is accompanied by the rapid, global degradati

203 the story, as the P. vivax intraerythrocytic life cycle is complex.

204 A fuller understanding of the virus life cycle is important to aid control strategies.

205 The viral life cycle is intimately associated with host cell diffe

206 on of the repertoire of miRNAs impacting HCV life cycle is lacking.

207 The HPV life cycle is tightly regulated and intimately linked to

208 ssociation between E2 and ChlR1 in the HPV16 life cycle is unresolved.

209 ant participant in many aspects of the viral life cycle, its best-characterized activity is self-asse

210 g example using three insect species (a fast life-cycle mayfly, a slow life-cycle dragonfly and an os

211 Notably, in an HPV16 life cycle model in primary human keratinocytes, mutant

212 Setaria viridis is a rapid-life-cycle model panicoid grass.

213 Life-cycle models of electricity and chemical consumptio

214 te traits across life stages; however, these life-cycle models primarily evaluate effects of lethal c

215 ches for combating these diseases, the viral life cycle must be understood in more detail.

216 The life cycle of a primary cilium begins in quiescence and

217 st cell are two fundamental processes in the life cycle of a virus.

218 is involved in the regulation of the sexual life cycle of C. reinhardtii, which is controlled by blu

219 aCRY plays an important role in the sexual life cycle of C. reinhardtii: It controls the germinatio

220 show that iPSdMs support the full infectious life cycle of C. trachomatis in a manner that mimics the

221 on of synthesis and fluid properties, in the life cycle of cell wall-deficient L-form bacteria.

222 ome segregation is a fundamental step in the life cycle of every cell.

223 ylation reprogramming during the sporophytic life cycle of flowering plants regulates genes is presen

224 nt information for further understanding the life cycle of HCV and its interaction with the host cell

225 The life cycle of HIV-1 has been studied extensively, yet im

226 t studies also elucidate a key aspect of the life cycle of HK2, specifically addressing how they do,

227 er, how metabolic cues are integrated in the life cycle of LDs is unclear.

228 Landfills are the final stage in the life cycle of many products containing per- and polyfluo

229 The life cycle of nanoscale pigments in plastics may cause e

230 rfluoroalkanesulfonic acids (PFSAs) from the life cycle of perfluorooctanesulfonyl fluoride (POSF)-ba

231 imate the emissions associated with the full life cycle of pipeline construction, maintenance, and di

232 of nanoparticles may take place through the life cycle of products embedding nanomaterials, thus res

233 me, mechanisms by how SAgs contribute to the life cycle of S. pyogenes remain poorly understood.

234 It has long been thought that the life cycle of Streptomyces bacteria encompasses three de

235 SSAPs and Ssb proteins are essential for the life cycle of temperate staphylococcal phages.

236 tica to grow and disseminate via the complex life cycle of the amoeba Dictyostelium discoideum.

237 d repurpose them for different stages in the life cycle of the element.

238 The life cycle of the opportunistic fungal pathogen Pneumocy

239 Because of the fast life cycle of the turquoise killifish, stable lines can

240 erstanding the mechanisms of the replicative life cycle of the virus may bring to light direct target

241 by host proteases is a critical step in the life cycle of these viruses.

242 life cycle, providing new insights into the life cycle of this poorly characterized family of viruse

243 l stochasticity, due to random events in the life cycle of wild organisms, yet no study thus far has

244 with the amoeba for months, through multiple life cycles of amoebae grown on the lawns of other bacte

245 To define the range and life cycles of cuticular drusen phenotypes using multimo

246 ue roles for RNA modifications in modulating life cycles of RNA viruses.

247 The diverse life cycles of these parasites are highly complex and, n

248 qualitative differences in the intracellular life cycles of these two pathogens.

249 s showed that BPH was unable to complete its life cycle on L. sayanuka, and N. muiri could not comple

250 ayanuka, and N. muiri could not complete its life cycle on rice.

251 it stresses the paramount importance of the life cycle: only by evaluating groups in the context of

252 monstrates the applicability of S-LCC to SWM life-cycle optimization through a case study based on an

253 replication at different stages of the viral life cycle or productive replication on macrophage funct

254 of host factors or drugs on steps of the HIV life cycle, or its reactivation from the latent state, t

255 rmancy and flowering time shape annual plant life cycles over multiple generations, we established na

256 At a single stage of its complex life cycle, P. berghei requires two-thirds of genes for

257 This study aimed to assess, from a life-cycle perspective, an innovative decentralized appr

258 little about the ecology of chytrids, their life cycles, phylogeny, host specificity and range.

259 hat is involved in both circadian timing and life cycle progression.

260 occurring in diatoms in a key phase of their life cycle, providing hints on the evolution and putativ

261 lation of NO production during the sapovirus life cycle, providing new insights into the life cycle o

262 Most existing life-cycle release models for engineered nanomaterials (

263 posttranslational modification in the virus life cycle remain obscure.

264 irements for this critical part of the viral life cycle remains poorly understood.

265 sis; however, mechanisms underlying the IBDV life cycle require further exploration.

266 costs on insects showing diapause and other life cycle responses, threatening population persistence

267 e expression in late events during the viral life cycle, RNA-Seq was carried out on triplicate differ

268 ld provide phase-specific support across the life cycle, securing the gains of investment in the firs

269 Its rapid life cycle, small (440-Mb) genome, and advanced germplas

270 e only four proteins to accomplish the viral life cycle, so each arenavirus protein likely plays unap

271 in the lipid rafts of an organism employing life cycle-specific sterols and have implications for tr

272 eal-time qPCR has confirmed the differential life-cycle stage expression of a set of selected lincRNA

273 viral uncoating, but not endocytosis or HIV life cycle stages after uncoating.

274 However, correlations between life cycle stages can constrain the evolution of some st

275 ally characterise histone PTMs in 8 distinct life cycle stages of P. falciparum parasites.

276 Here, I analyse the swimming of the insect life cycle stages of two human parasites; Trypanosoma br

277 We wondered whether the insect and mammalian life cycle stages possess chemically different lipid raf

278 rall, we expand our view of the sex-specific life cycle stages that can drive sex chromosome evolutio

279 on haploid genotypes during less conspicuous life cycle stages, e.g., competition among sperm/pollen

280 ol enrichment and cell metabolism in the two life cycle stages.

281 ifferential expression across five different life-cycle stages of the parasite.

282 velopments targeting different molecular HBV life cycle steps are being pre-clinically tested or have

283 This study reviewed 147 life cycle studies, with 28 found suitable for harmonizi

284 atures with parasitic nematodes with complex life cycles, such as the production of few males after o

285 Subsequently, during the lytic phase of the life cycle, the maturing viral particles undergo orchest

286 Throughout its life cycle, the T. cruzi parasite faces several alternat

287 ects of methyl-6-adenosine in distinct viral life cycles, the role of 2' O-methyl modifications in RN

288 lls allowed completion of steps in the HIV-1 life cycle through integration but suppressed HIV-1 gene

289 isk human papillomaviruses (HPVs) link their life cycle to epithelial differentiation and require act

290 al that CRISPR-Cas systems exploit the phage life cycle to generate a pattern of spacer acquisition t

291 ication and allows later stages of the viral life cycle to proceed in the absence of B1.

292 uely associated with AT during part of their life cycle: Trypanosoma cruzi, the causative agent of Ch

293 about how these modifications regulate viral life cycles, until recently.

294 cell, HIV-1 completes the early phase of its life cycle upon integration of reverse-transcribed viral

295 lmark of all herpesviruses is their biphasic life cycle-viral latency and the productive lytic cycle-

296 in eukaryotes is the evolution of a biphasic life cycle with alternating diploid and haploid phases.

297 and physiological adaptations to land, and a life cycle with an alternation between multicellular hap

298 earchers to image multiple steps of the mRNA life cycle with high temporal and spatial resolution.

299 Following HBV infection, a complete viral life cycle, with production of HBV DNA, hepatitis B e (H

300 azoan hosts and insect vectors through their life cycles, with the need to respond quickly and revers