ライフサイエンスコーパス: eukaryotic cell

1 bacterial endosymbiont that resided within a eukaryotic cell.

2 al diffusive motion at the scale of a single eukaryotic cell.

3 ago and became endosymbionts within the host eukaryotic cell.

4 y independent effector domains into a target eukaryotic cell.

5 ogic conversions upon gaining an access to a eukaryotic cell.

6 biological time, the longest thus far for a eukaryotic cell.

7 to probe compartmentalized cAMP signaling in eukaryotic cells.

8 reactions, such as the breakdown of fats, in eukaryotic cells.

9 he rate-limiting step of mRNA degradation in eukaryotic cells.

10 dynamic structural framework for mitosis in eukaryotic cells.

11 block CRISPR-Cas-mediated genome editing in eukaryotic cells.

12 imple prokaryotic cells gave rise to complex eukaryotic cells.

13 is is a fundamental process occurring in all eukaryotic cells.

14 ng of an aspect of DNA replication unique to eukaryotic cells.

15 ich are the main cytoplasmic deadenylases in eukaryotic cells.

16 l that dissolves liquid-like compartments in eukaryotic cells.

17 ls from the outside to the inside of most of eukaryotic cells.

18 dria are an iconic distinguishing feature of eukaryotic cells.

19 Ps) are key regulators of lipid signaling in eukaryotic cells.

20 anism that bears resemblance to apoptosis in eukaryotic cells.

21 d-directed transport and is indispensable to eukaryotic cells.

22 essed for genome engineering applications in eukaryotic cells.

23 r encoding logic and memory in bacterial and eukaryotic cells.

24 onsible for selective protein degradation in eukaryotic cells.

25 flexible carbon chains that are found in all eukaryotic cells.

26 membrane (PM) play fundamental roles in all eukaryotic cells.

27 sting further interactions between ORF4a and eukaryotic cells.

28 se-mediated integration both in vitro and in eukaryotic cells.

29 dreds of protein-protein interactions within eukaryotic cells.

30 plasmic reticulum and the Golgi apparatus in eukaryotic cells.

31 plication is highly complex in both pro- and eukaryotic cells.

32 etic interactions between viral proteins and eukaryotic cells.

33 onal interactions between viral proteins and eukaryotic cells.

34 eaflet of the plasma membrane of the healthy eukaryotic cells.

35 ation and maturation of Okazaki fragments in eukaryotic cells.

36 ssing of rRNAs and are thus critical for all eukaryotic cells.

37 into a host nucleus, leading to infection of eukaryotic cells.

38 some and contributes to lipid homeostasis in eukaryotic cells.

39 echanism for directed, bulk transport within eukaryotic cells.

40 nd carbohydrates on the outer surface of all eukaryotic cells.

41 Proteasomes are essential in all eukaryotic cells.

42 ence of RNA G-quadruplex formation in living eukaryotic cells.

43 liferative potential and genome integrity in eukaryotic cells.

44 r delivery of toxins into both bacterial and eukaryotic cells.

45 ions, controlling virtually every process in eukaryotic cells.

46 ) to inject virulence effector proteins into eukaryotic cells.

47 SUMO(Eu) fusions therefore remain stable in eukaryotic cells.

48 requirements and is broadly conserved in all eukaryotic cells.

49 and/or double bond locations/geometries) in eukaryotic cells.

50 d be recognized for my work on chemotaxis in eukaryotic cells.

51 nctions is of fundamental importance for all eukaryotic cells.

52 atidylserine exposure on the surface of many eukaryotic cells.

53 ovide specificity for prokaryotic cells over eukaryotic cells.

54 chanisms are fundamental for proteostasis of eukaryotic cells.

55 tidylcholine (PC), the major phospholipid of eukaryotic cells.

56 synthetic systems regulating the behavior of eukaryotic cells.

57 lia is the largest macromolecular machine of eukaryotic cells.

58 hich effectively induce actin disassembly in eukaryotic cells.

59 d actin-mediated endocytosis is essential in eukaryotic cells.

60 ytoskeleton and organize polar growth in all eukaryotic cells.

61 rotein sorting in the endomembrane system of eukaryotic cells.

62 ved between eubacteria and the organelles of eukaryotic cells.

63 TRAPPIII function in both normal and starved eukaryotic cells.

64 cal for the development and function of many eukaryotic cells.

65 m regulated by heat shock factor 1 (Hsf1) in eukaryotic cells.

66 Mitochondria are signaling hubs in eukaryotic cells.

67 canonical pathway for protein degradation in eukaryotic cells.

68 ional formation of LDs into the cytoplasm in eukaryotic cells.

69 tenance of the asymmetric plasma membrane of eukaryotic cells.

70 r rapidly when used to manipulate genomes in eukaryotic cells.

71 s and targets a translation step specific to eukaryotic cells.

72 plays important roles in both bacterial and eukaryotic cells.

73 of its precursor polyprenol, are unusual in eukaryotic cells.

74 tory lipids that direct membrane function in eukaryotic cells.

75 secondary messengers used by prokaryotic and eukaryotic cells.

76 ived lipid bilayers secreted by bacteria and eukaryotic cells.

77 nce for RNA G-quadruplex formation in living eukaryotic cells.

78 ) as a normal constituent of aerobic life in eukaryotic cells.

79 condensates at a synthetic locus within live eukaryotic cells.

80 processes, occurring in both prokaryotic and eukaryotic cells.

81 ne-trafficking system is a defining facet of eukaryotic cells.

82 ly release enclosed cytotoxic drugs and kill eukaryotic cells.

83 ses converge to process problematic mRNAs in eukaryotic cells..

84 d that prevents chromosome missegregation in eukaryotic cells [1, 2].

85 dentified, within the crowded environment of eukaryotic cells, a unique nanoscale architecture of a f

86 ned by sub-tomogram averaging from nuclei of eukaryotic cells, achieved by cryo-electron tomography (

87 a, organelles protruding from the surface of eukaryotic cells, act as cellular antennae to detect and

88 to re-establish the compartmentalization of eukaryotic cells after open mitosis.

89 Gs) are membraneless organelles that form in eukaryotic cells after stress exposure [1] (reviewed in

90 In prokaryotic and eukaryotic cells alike, Acs activity is downregulated by

91 In interphase eukaryotic cells, almost all heterochromatin is located

92 rafficking maintains the organization of the eukaryotic cell and delivers cargo proteins to their sub

93 s) are the major lipid storage organelles of eukaryotic cells and a source of nutrients for intracell

94 of the serine/threonine dephosphorylation in eukaryotic cells and achieve substrate selectivity and s

95 TRAPPs are essential in all eukaryotic cells and are implicated in a number of human

96 SNAREs with impact on membrane remodeling in eukaryotic cells and expand the roles of mAtg8s to lysos

97 r 2 (Nrf2) is ubiquitously expressed in most eukaryotic cells and functions to induce a broad range o

98 ve splicing is a key regulatory mechanism in eukaryotic cells and increases the effective number of f

99 ghly conserved protein complex found in most eukaryotic cells and is associated with many functions,

100 etory trafficking is highly conserved in all eukaryotic cells and is required for secretion of protei

101 ith the physiologies of both prokaryotic and eukaryotic cells and is widely synthesized by bacteria a

102 for the activity, function and viability of eukaryotic cells and mitochondrial dysfunction is involv

103 ransport processes of molecular cargo within eukaryotic cells and play essential roles in a wide vari

104 eling inositol-containing glycoconjugates in eukaryotic cells and potentially in mycobacteria, but th

105 ER) is the main site of protein synthesis in eukaryotic cells and requires a high concentration of lu

106 Circular RNAs (circRNAs) are prevalent in eukaryotic cells and viral genomes.

107 udes a non-bacterial fraction represented by eukaryotic cells and viruses.

108 pically an order of magnitude smaller than a eukaryotic cell, and identifies gaps in our current know

109 is an important quality-control mechanism in eukaryotic cells, and defects in mitophagy correlate wit

110 ictating the spatio-temporal organisation of eukaryotic cells, and in particular the mechanisms contr

111 sed in the endoplasmic reticulum (ER) of all eukaryotic cells, and their disruption results in severe

112 actions, or localization of many proteins in eukaryotic cells, and thus play an essential role in cel

113 ssion yeast and provide new insight into how eukaryotic cells are able to respond to changes in zinc

114 Hypotheses about the origin of eukaryotic cells are classically framed within the conte

115 Lipid droplets (LDs) in all eukaryotic cells are coated with at least one of the per

116 Eukaryotic cells are compartmentalized into organelles b

117 Intracellular trafficking pathways in eukaryotic cells are essential to maintain organelle ide

118 Mitochondria as the main energy suppliers of eukaryotic cells are highly dynamic organelles that fuse

119 rigins and their typical activation times in eukaryotic cells are poorly understood.

120 ns of DNA in the interphase and metaphase of eukaryotic cells are unprotected by histone proteins dur

121 onucleoprotein (RNP) assemblies that form in eukaryotic cells as a result of limited translation in r

122 Mitochondria are crucial compartments of eukaryotic cells because they function as the cellular p

123 a classical component of stress response in eukaryotic cells, being activated under oxidative stress

124 e important not only to the understanding of eukaryotic cell biology and metabolism, but also to agri

125 Eukaryotic cell biology depends on cullin-RING E3 ligase

126 minor proportion of total membrane lipids in eukaryotic cells but influence a broad range of cellular

127 genic RNAs (lincRNAs) play critical roles in eukaryotic cells, but systematic analyses of the lincRNA

128 sible for the bulk of protein degradation in eukaryotic cells, but the factors that cause different s

129 molecule eliciting a number of responses in eukaryotic cells, but the mechanisms mediating these eff

130 ecute essential functions in prokaryotic and eukaryotic cells, but their biogenesis is challenged by

131 plays a critical role in the architecture of eukaryotic cells by driving the remodeling and severing

132 Infection of eukaryotic cells by Shigella flexneri boosts oxygen cons

133 s a characteristic of all cells, achieved in eukaryotic cells by utilizing both membrane-bound and me

134 Interestingly, eukaryotic cells can also directly exchange cellular com

135 structural changes experienced by genomes of eukaryotic cells can be dramatic and spans several order

136 Eukaryotic cells can migrate using different modes, rang

137 Eukaryotic cells can respond to diverse stimuli by conve

138 cytosis is potentially a fundamental form of eukaryotic cell-cell interaction, since it also occurs i

139 growth and shrinkage are highly regulated as eukaryotic cells change shape, move, and divide.

140 Mitochondria of eukaryotic cells contain a labile copper(I) pool localiz

141 Eukaryotic cells contain a variety of RNA-protein macroc

142 Some eukaryotic cells contain multiple forms of the protein-o

143 Eukaryotic cells contain sub-cellular compartments that

144 ls and other distal lung epithelia, like all eukaryotic cells, contain an elegant quality control net

145 Eukaryotic cells control the complexity of their metabol

146 view of the abundance of biomolecules in the eukaryotic cell cycle and point to a coordinate mitotic

147 aled a range of phenotypes informative about eukaryotic cell cycle control.

148 played critical roles in working out how the eukaryotic cell cycle operates and is controlled.

149 In the eukaryotic cell cycle, a threshold level of cyclin B acc

150 During interphase of the eukaryotic cell cycle, the microtubule (MT) cytoskeleton

151 CDK pair fills the functional space of other eukaryotic cell-cycle kinases controlling DNA replicatio

152 The shapes of many eukaryotic cells depends on the actin cytoskeleton, and

153 Eukaryotic cells deploy overlapping repair pathways to r

154 The eukaryotic cell develops organelles to sense and respond

155 Many eukaryotic cells distribute their intracellular componen

156 In eukaryotic cells, diverse stresses trigger coalescence o

157 Moreover, many taxonomically diverse eukaryotic cells divide by furrowing but have no type-II

158 Many eukaryotic cells divide using a contractile apparatus ca

159 east to establish the basic mechanism of the eukaryotic cell division cycle.

160 Eukaryotic cell division has been studied thoroughly and

161 Eukaryotic cell division requires dependency relationshi

162 Eukaryotic cell division requires the mitotic spindle, a

163 During eukaryotic cell division, cyclin-specific docking motifs

164 In eukaryotic cells, DNA is packaged into chromatin where n

165 nd shape rapidly in response to the needs of eukaryotic cells during clathrin-mediated endocytosis an

166 en utilized to study biomechanics of complex eukaryotic cells either due to lack of depth sectioning,

167 Organelles compartmentalize eukaryotic cells, enhancing their ability to respond to

168 Most eukaryotic cells execute binary division after each mass

169 Eukaryotic cells express transcription factor (TF) paral

170 The plasma membrane of eukaryotic cells forms the essential barrier to the extr

171 ER) and Golgi apparatus is indispensable for eukaryotic cell function.

172 llular compartmentalisation is necessary for eukaryotic cell function.

173 mechanisms are critical for a wide range of eukaryotic cell functions, including the transport of ve

174 a(2+)](i) are key for regulation of numerous eukaryotic cell functions.

175 In eukaryotic cells, genomic DNA is wrapped around histone

176 istic target of rapamycin (mTOR) coordinates eukaryotic cell growth and metabolism with environmental

177 or signals and nutritional status, to direct eukaryotic cell growth.

178 Each genomic locus in a eukaryotic cell has a distinct average time of replicati

179 any different ubiquitin chain types found in eukaryotic cells has been a major hurdle to our understa

180 alysis, indicate that the capacity to infect eukaryotic cells has been acquired independently many ti

181 Labeling of biomolecules in live eukaryotic cells has been limited by low component stabi

182 Eukaryotic cells have developed sophisticated mechanisms

183 Eukaryotic cells have diverse protrusive and contractile

184 Eukaryotic cells have divided the steps of gene expressi

185 must be broken before cells can divide, and eukaryotic cells have evolved multiple ways in which to

186 Eukaryotic cell homeostasis requires transfer of cellula

187 nto how these molecular machines work in the eukaryotic cell, how they convey resilience to life, how

188 integrated stress response, which occurs in eukaryotic cells in response to accumulation of unfolded

189 nd reversible cytoplasmic assembly formed in eukaryotic cells in response to stress.

190 f DNA extracted from diverse prokaryotic and eukaryotic cells in tau misfolding and aggregation.

191 Dinoflagellates are some of the most common eukaryotic cells in the ocean, but have very unusual nuc

192 iomolecular condensates are found throughout eukaryotic cells, including in the nucleus, in the cytop

193 e transport of cargoes along microtubules in eukaryotic cells, including organelles, mRNA and viruses

194 ses) are necessary for numerous processes in eukaryotic cells, including receptor-mediated endocytosi

195 lecules that have multiple activities within eukaryotic cells, including well-known roles as second m

196 study of low-input samples including single eukaryotic cells infected by 1-3 Pseudomonas aeruginosa

197 DNA replication in eukaryotic cells initiates from replication origins that

198 he transcription regulatory network inside a eukaryotic cell is defined by the combinatorial actions

199 sitioning of chromosomes in the nucleus of a eukaryotic cell is highly organized and has a complex an

200 The hallmark of the eukaryotic cell is the complex endomembrane system that

201 The nucleus in eukaryotic cells is a crowded environment that consists

202 The plasma membrane of eukaryotic cells is asymmetric with respect to its phosp

203 The transcriptome of eukaryotic cells is constantly monitored for errors to a

204 The nuclear morphology of eukaryotic cells is determined by the interplay between

205 The interior of eukaryotic cells is mysterious.

206 The plasma membrane of eukaryotic cells is organized into lipid and protein mic

207 One of the responses to stress by eukaryotic cells is the down-regulation of protein synth

208 One such critical pathway in eukaryotic cells is the unfolded protein response (UPR)

209 The goal of many single-cell studies on eukaryotic cells is to gain insight into the biochemical

210 (mtDNA), the only form of non-nuclear DNA in eukaryotic cells, is a major activator of inflammation w

211 mimic of a crowded cellular environment and eukaryotic cell lysates, that parameters optimized towar

212 In eukaryotic cells, many introns are constitutively, rathe

213 Cholesterol is an integral component of eukaryotic cell membranes and a key molecule in controll

214 d nanodomains (or rafts) in cholesterol rich eukaryotic cell membranes has only begun to be explored.

215 e selective over other bacterial species and eukaryotic cells, metabolically stable, and apparently n

216 Eukaryotic cell metabolism consists of processes that ge

217 Eukaryotic cells migrate by coupling the intracellular f

218 As the powerhouses of the eukaryotic cell, mitochondria must maintain their genome

219 In higher eukaryotic cells, mitochondria are essential subcellular

220 s elegans, indicating suitability for use in eukaryotic cells more broadly.

221 The two most prevalent forms of eukaryotic cell motility are flagellar-dependent swimmin

222 Eukaryotic cells must accurately monitor the integrity o

223 At the end of mitosis, eukaryotic cells must segregate the two copies of their

224 As the most abundant mRNA modification in eukaryotic cells, N(6)-methyladenosine (m(6)A) has recen

225 ating amoeba." Unlike nearly all other known eukaryotic cells, Naegleria amoebae lack interphase micr

226 io-temporal organization of chromatin in the eukaryotic cell nucleus is of vital importance for trans

227 In eukaryotic cells, numerous translation initiation factor

228 In eukaryotic cells, organelle-specific protein quality con

229 Eukaryotic cells organize their intracellular components

230 tion to Ca(2+) handling mechanisms common to eukaryotic cells, our model includes microglia-specific

231 Eukaryotic cells pack their genomic DNA into euchromatin

232 present in millimolar concentrations in all eukaryotic cells participating in the regulation of vita

233 tin cytoskeleton plays a variety of roles in eukaryotic cell physiology, ranging from cell polarity a

234 te (PIP2) is an important signaling lipid in eukaryotic cell plasma membranes, playing an essential r

235 Our results help explain why eukaryotic cells possess multiple resection nucleases.

236 In eukaryotic cells, post-translational translocation is me

237 In eukaryotic cells, pre-mRNA splicing is catalyzed by the

238 In the plasma membrane of eukaryotic cells, proteins and lipids are organized in c

239 In eukaryotic cells, proteome remodeling is mediated by the

240 Eukaryotic cells regulate 5'-triphosphorylated RNAs (ppp

241 ons to the vast array of proteins present in eukaryotic cells remains challenging.

242 eral pathways but how CDNs work from outside eukaryotic cells remains poorly understood.

243 In response to internal and external cues, eukaryotic cells remodel their MT network in a regulated

244 Eukaryotic cells represent an intricate collaboration be

245 In eukaryotic cells, ribonucleoproteins (RNPs) form mesosca

246 ntalization is an essential process by which eukaryotic cells separate and control biological process

247 ased on native MS of intact Tau expressed in eukaryotic cells (Sf9).

248 Several eukaryotic cell signaling pathways are differentially ex

249 domains and have a multitude of functions in eukaryotic cell signaling.

250 hosphatidylinositol (PI) cycle is central to eukaryotic cell signaling.

251 Stressed eukaryotic cells store mRNAs in protein-rich condensates

252 s within one of the most complex machines of eukaryotic cells, supporting the critical role of Clf1 a

253 Eukaryotic cell survival requires maintenance of plasma

254 bination (HR) and other functions central to eukaryotic cell survival.

255 onal interactions between viral proteins and eukaryotic cells that may provide new avenues for antivi

256 ssential, and highly abundant protein in all eukaryotic cells that performs key roles in contractilit

257 Microtubules are multistranded polymers in eukaryotic cells that support key cellular functions suc

258 al reproduction, contribute to adaptation of eukaryotic cells that undergo dramatic genome changes in

259 When expressed and characterized in eukaryotic cells, the 462Gln variant displayed lower Vma

260 Thus, similar to eukaryotic cells, the interactions between GTPase, cytos

261 In eukaryotic cells, the N-terminal amino moiety of many pr

262 In eukaryotic cells, the transport of cellular mRNAs to mem

263 required for efficient energy production in eukaryotic cells: the electron transfer chain (ETC), fat

264 l focus on developmental processes that give eukaryotic cells their complex structures, with a focus

265 Exosomes are vesicles released by many eukaryotic cells; their cargo includes proteins, mRNA an

266 While predominantly used to interface eukaryotic cells, there is growing interest in nonanimal

267 d its subsequent degradation in lysosomes of eukaryotic cells, thereby providing cell-autonomous nutr

268 terial protein toxins specifically targeting eukaryotic cells through the absolute requirement for hi

269 a favorable therapeutic index when tested on eukaryotic cells (TI: > 30) and, unlike some previously

270 sport between the nucleus and cytoplasm of a eukaryotic cell to play important biological and biomedi

271 The adaptation of eukaryotic cells to anaerobic conditions is reflected by

272 Adaptation enables eukaryotic cells to directionally migrate over a large d

273 of enzymatic and structural proteins and by eukaryotic cells to enable isoform-specific protein synt

274 oteolysis is a fundamental mechanism used by eukaryotic cells to maintain homeostasis and protein qua

275 Signal transduction networks allow eukaryotic cells to make decisions based on information

276 etion systems (T3SS) to inject proteins into eukaryotic cells to subvert normal cellular functions.

277 In eukaryotic cells, transcriptional activity of a gene is

278 ed organelles present on the surface of many eukaryotic cell types and can be motile or non-motile pr

279 Eukaryotic cells typically form a single, round nucleus

280 The structural integrity of eukaryotic cells under small deformations has been known

281 During division, eukaryotic cells undergo a dramatic, complex and coordin

282 Eukaryotic cells use a number of diverse mechanisms to s

283 d endocytosis (CME) is the primary mechanism eukaryotic cells use to internalize material.

284 Together, these results suggest that a eukaryotic cell uses a G protein-coupled receptor to med

285 They target eukaryotic cells using different mechanisms, but all req

286 In eukaryotic cells, various membrane-bound organelles comp

287 ation of chromatin structure at promoters in eukaryotic cells via MOZ histone acetyltransferase activ

288 s approach to eliminate both prokaryotic and eukaryotic cells was demonstrated by pairing a unique C1

289 les such as oil emulsions and LDs in various eukaryotic cells, we find good agreement with bulk gas c

290 Eukaryotic cells, when exposed to environmental or inter

291 calizes to the inner cytoplasmic membrane of eukaryotic cells, where it exerts its phospholipase A2 a

292 a are long, slender organelles found in many eukaryotic cells, where they have sensory, developmental

293 s of the CDK control system are conserved in eukaryotic cells, which contain multiple cyclin-CDK form

294 ate a wide variety of metabolic reactions in eukaryotic cells, while also being amenable to selective

295 ed multimeric protein complex present in all eukaryotic cells whose activity is essential for regulat

296 The mitochondrial ATP synthase fuels eukaryotic cells with chemical energy.

297 mon non-standard nucleotides found in DNA of eukaryotic cells, with over 100 million rNMPs transientl

298 In eukaryotic cells, with the exception of the specialized

299 Consequently, one cannot grow eukaryotic cells without their mitochondria, and the mit

300 rdinate the expression of groups of genes in eukaryotic cells, yet relatively few have been character