ライフサイエンスコーパス: eukaryotic cell

1 distributed between two compartments of the eukaryotic cell.

2 d replicative lifespan can be uncoupled in a eukaryotic cell.

3 iont merged together, resulting in the first eukaryotic cell.

4 viduals, such as during the evolution of the eukaryotic cell.

5 are membrane-bound organelles found in every eukaryotic cell.

6 of an ancient photosynthetic bacterium by a eukaryotic cell.

7 usively within the cytoplasm or vacuole of a eukaryotic cell.

8 ytoskeleton and organize polar growth in all eukaryotic cells.

9 st robust platform for genome engineering in eukaryotic cells.

10 methylase Kdm4d regulates DNA replication in eukaryotic cells.

11 resultant boost to the energetic capacity of eukaryotic cells.

12 airs DNA double strand breaks in non-cycling eukaryotic cells.

13 family and methylates a range of proteins in eukaryotic cells.

14 partially overcome the deletion of Mic60 in eukaryotic cells.

15 IRE1 is the most conserved UPR sensor in eukaryotic cells.

16 enome integration into either prokaryotic or eukaryotic cells.

17 lar complexes may advance nanoengineering of eukaryotic cells.

18 rotein sorting in the endomembrane system of eukaryotic cells.

19 key to the initiation of DNA replication in eukaryotic cells.

20 of proteins from Gram-negative bacteria into eukaryotic cells.

21 d and aging macromolecules and organelles in eukaryotic cells.

22 ved between eubacteria and the organelles of eukaryotic cells.

23 ransfer mechanisms required and used by most eukaryotic cells.

24 nscription regulation, and cell signaling in eukaryotic cells.

25 ular apparatus which physically divides many eukaryotic cells.

26 ecules that mediate localized translation in eukaryotic cells.

27 by phosphodiesterase is well-established in eukaryotic cells.

28 t function as hubs of signal transduction in eukaryotic cells.

29 AVE drive normal migration and chemotaxis in eukaryotic cells.

30 l platforms for many biological responses in eukaryotic cells.

31 unique tool to study G-protein signaling in eukaryotic cells.

32 membrane fusion in the secretory pathway of eukaryotic cells.

33 erodimers, are thought to be present only in eukaryotic cells.

34 strategies for invading and surviving within eukaryotic cells.

35 f1 is a promising tool for genome editing in eukaryotic cells.

36 accurate and efficient protein synthesis in eukaryotic cells.

37 TRAPPIII function in both normal and starved eukaryotic cells.

38 p in general cytoplasmic mRNA degradation in eukaryotic cells.

39 the energy-generating organelles that power eukaryotic cells.

40 have never been directly observed in higher eukaryotic cells.

41 mportant roles in controlling mitosis in all eukaryotic cells.

42 f tubulin that are ubiquitously expressed in eukaryotic cells.

43 ple and efficient tool for genome editing in eukaryotic cells.

44 s actin nucleation and assembly processes in eukaryotic cells.

45 r how Exo1 is regulated during DNA repair in eukaryotic cells.

46 omplex is the central sorting compartment of eukaryotic cells.

47 ellular homeostasis and stress adaptation in eukaryotic cells.

48 anelle lipid droplet (LD) in essentially all eukaryotic cells.

49 critical for the survival and health of all eukaryotic cells.

50 ng transcriptomic and proteomic diversity in eukaryotic cells.

51 hich effectively induce actin disassembly in eukaryotic cells.

52 iption modulation, and chromosome imaging in eukaryotic cells.

53 tory complexes for the normal homeostasis of eukaryotic cells.

54 a primary point of translational control in eukaryotic cells.

55 Mitochondria are a distinguishing feature of eukaryotic cells.

56 dules for a variety of cellular responses in eukaryotic cells.

57 edge of the biological roles of mRNA caps in eukaryotic cells.

58 a medically important bacterium that infects eukaryotic cells.

59 but essential regulatory lipid found in all eukaryotic cells.

60 gin melting by LT during SV40 replication in eukaryotic cells.

61 Vps13 protein family is highly conserved in eukaryotic cells.

62 ecise and efficient genome editing in living eukaryotic cells.

63 evolved to house the genetic material of all eukaryotic cells.

64 cycle progression and DNA repair pathways in eukaryotic cells.

65 naling cascades are present in virtually all eukaryotic cells.

66 ion, and inheritance of genetic material for eukaryotic cells.

67 ethyl mark critical for genomic integrity of eukaryotic cells.

68 nal and genetic traits attributed to typical eukaryotic cells.

69 gical structure formed by lipid membranes in eukaryotic cells.

70 controlled by highly efficient mechanisms in eukaryotic cells.

71 ntial process modulating protein function in eukaryotic cells.

72 onsible for oxidative phosphorylation within eukaryotic cells.

73 bacterial pathogens to inject proteins into eukaryotic cells.

74 sents a fundamental signaling pathway in all eukaryotic cells.

75 that organize complex signaling networks in eukaryotic cells.

76 the nuclear genome is not the only genome in eukaryotic cells.

77 ver bacterially encoded proteins into target eukaryotic cells.

78 a for self-defense against both bacteria and eukaryotic cells.

79 r repairing dsDNA breaks that occur often in eukaryotic cells.

80 y dynamic network underneath the membrane of eukaryotic cells.

81 ion and adenosine triphosphate production in eukaryotic cells.

82 ich are the main cytoplasmic deadenylases in eukaryotic cells.

83 both sites is important for MRN functions in eukaryotic cells.

84 tubules and sheets stretching throughout the eukaryotic cells.

85 ristic acid to the N terminus of proteins in eukaryotic cells.

86 thway for uptake of signaling receptors into eukaryotic cells.

87 odifications modulate biological function in eukaryotic cells.

88 Rab GTPase-regulated membrane trafficking in eukaryotic cells.

89 r polymers of alphabeta-tubulin found in all eukaryotic cells.

90 only useful in much larger and sophisticated eukaryotic cells.

91 thesizing inositol hexakisphosphate (IP6) in eukaryotic cells.

92 pidly shut down the synthesis of proteins in eukaryotic cells.

93 somes and the mimicry of the architecture of eukaryotic cells.

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

95 ys to particular organelles is a hallmark of eukaryotic cells.

96 r bacterially encoded effector proteins into eukaryotic cells.

97 ITPs) regulate phosphoinositide signaling in eukaryotic cells.

98 abundance of bacteria, viral particles, and eukaryotic cells.

99 itiation of replication of the genome in all eukaryotic cells.

100 oreign material are degraded and recycled in eukaryotic cells.

101 ell division and cellular differentiation in eukaryotic cells.

102 in the origin and early evolution of complex eukaryotic cells.

103 ct positioning of organelles is essential to eukaryotic cells.

104 ve like liquid droplets are widespread among eukaryotic cells.

105 plays a role in essentially every process in eukaryotic cells.

106 and inner leaflets of the plasma membrane in eukaryotic cells.

107 t follow a Poisson process observed in other eukaryotic cells.

108 icles (GUVs) whose dimensions match those of eukaryotic cells.

109 the restructuring of the cytoskeleton within eukaryotic cells.

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

111 transcription of all protein-coding genes in eukaryotic cells, a process that is fundamental to life.

112 to repair DNA double-stranded breaks (DSBs), eukaryotic cells activate the DNA damage checkpoint.

113 n immobilized, recombinant PEDF expressed in eukaryotic cells activated the classical complement path

114 tion, that leads to the directed movement of eukaryotic cells along extracellular gradients.

115 Virophages are small viruses that co-infect eukaryotic cells alongside giant viruses (Mimiviridae) a

116 yanobacterium was engulfed and retained by a eukaryotic cell, although early steps in plastid integra

117 Here, we use yeast as a model of eukaryotic cell and show that aerobically grown cells ex

118 ecific viruses, they do not naturally infect eukaryotic cells and are not toxic to them.

119 been shown to inhibit or kill prokaryotic or eukaryotic cells and are often important for virulence.

120 asic structural unit for genome packaging in eukaryotic cells and consists of DNA wound around a core

121 ey regulator of DSB repair pathway choice in eukaryotic cells and functions to favor NHEJ over HDR by

122 ellular recycling and trafficking pathway in eukaryotic cells and has been reported to be important i

123 ng plasmid DNA, it penetrates prokaryotic or eukaryotic cells and integrates the target DNA into the

124 riptional step to control gene expression in eukaryotic cells and is poorly understood in apicomplexa

125 zyme required for biosynthesis of sterols in eukaryotic cells and is the major target of clinical dru

126 used to inject effectors into prokaryotic or eukaryotic cells and is thus involved in both host manip

127 A primary cilium is present on most eukaryotic cells and represents a specialized organelle

128 y the lumen of subcellular organelles in all eukaryotic cells and the extracellular space in some tis

129 , somatic rearrangement events occur in many eukaryotic cells and tumors.

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

131 rception and signal transduction by a single eukaryotic cell, and their role in pathogenesis.

132 tial process to yield proteomic diversity in eukaryotic cells, and aberrant splicing is often associa

133 ion and intracellular vesicle trafficking in eukaryotic cells, and are critical in the growth and dev

134 acterial cells, it has also been adapted for eukaryotic cells, and can be used for whole cell biosens

135 RNA) accounts for the majority of the RNA in eukaryotic cells, and is encoded by hundreds to thousand

136 intracellular lipid metabolism in almost all eukaryotic cells, and LD-associated proteins tightly reg

137 was once a component of the ancestor of all eukaryotic cells, and much of the human genome originate

138 s in proteins regulates diverse processes in eukaryotic cells, and thousands of threonine phosphoryla

139 uss some of the proposed mechanisms by which eukaryotic cells are able to complete the first three of

140 Eukaryotic cells are densely packed with macromolecular

141 f the proteins synthesized in the cytosol of eukaryotic cells are integrated into the plasma membrane

142 Double-strand breaks (DSBs) of DNA in eukaryotic cells are predominantly repaired by non-homol

143 hagy is an ancient pathway in which parts of eukaryotic cells are self-digested within the lysosome o

144 Indeed membrane components of eukaryotic cells are very dynamic molecules and can diff

145 Eukaryotic cells assemble stress granules (SGs) when tra

146 Eukaryotic cells attempt to maintain an optimal size, re

147 ging and longevity in symmetrically dividing eukaryotic cells because most prior studies have used bu

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

149 Membrane fusion is essential in a myriad of eukaryotic cell biological processes, including the syna

150 cuss its potential for future integration of eukaryotic cell biology into evolutionary and ecological

151 Bacterial and eukaryotic cells both demonstrate homeostatic size contr

152 gi cisterna is a highly conserved feature of eukaryotic cells, but how is this morphology achieved an

153 that control nucleocytoplasmic transport in eukaryotic cells, but its transport mechanism is still n

154 egalocytosis and DNA double-strand breaks in eukaryotic cells, but paradoxically, this gene cluster i

155 lar RNAs (circRNAs) are broadly expressed in eukaryotic cells, but their molecular mechanism in human

156 Eukaryotic cells can "remember" transient encounters wit

157 Many eukaryotic cells can respond to transient environmental

158 ation of the newly synthesized proteins in a eukaryotic cell carried out by six amino-terminal acetyl

159 Eukaryotic cells chemotax in a wide range of chemoattrac

160 Single eukaryotic cells commonly sense and follow chemical grad

161 Eukaryotic cells compartmentalize neutral lipids into or

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

163 ranslesion synthesis (TLS) polymerases, most eukaryotic cells contain a multifunctional replicative e

164 Eukaryotic cells contain hundreds of metalloproteins tha

165 Eukaryotic cells contain multiple RNA-protein assemblies

166 , the ubiquitous power packs in nearly every eukaryotic cell, contain their own DNA, known as mtDNA,

167 Eukaryotic cells coordinate growth with the availability

168 Diverse eukaryotic cells crawl through complex environments usin

169 organelles in the endomembrane system of any eukaryotic cell critically depends on the correctly loca

170 Fetal bovine serum (FBS) has been used in eukaryotic cell cultures for decades.

171 1 phase and is an important component of the eukaryotic cell cycle control system.

172 he ubiquitin ligase APC/C-Cdh1 is central to eukaryotic cell cycle control.

173 event rereplication of genomic segments, the eukaryotic cell cycle is divided into two nonoverlapping

174 A key component of the eukaryotic cell cycle is the protein kinase Wee1, which

175 The central regulators that govern eukaryotic cell cycle progression are cyclin-dependent k

176 Passage through the eukaryotic cell cycle requires processes that are tightl

177 f Cdk activity is a conserved feature of the eukaryotic cell cycle, we anticipate its frequent use in

178 ophagy is a major catabolic pathway by which eukaryotic cells deliver unnecessary or damaged cytoplas

179 For directional movement, eukaryotic cells depend on the proper organization of th

180 In eukaryotic cells, diverse stresses trigger coalescence o

181 Many eukaryotic cells divide by assembling and constricting a

182 somes to the daughter cells (M phase) during eukaryotic cell division is governed by switches that fl

183 ct of oxidative metabolism, can be sensed by eukaryotic cells eliciting specific responses via recent

184 gand-dependent activation in prokaryotic and eukaryotic cells, establishing a versatile one-component

185 presented a comprehensive symbiotic view of eukaryotic cell evolution (eukaryogenesis).

186 Eukaryotic cells evolved a set of intracellular signalin

187 The mitochondria and plastids of eukaryotic cells evolved from endosymbiotic prokaryotes.

188 As in other eukaryotic cells, exocytotic secretion from astrocytes i

189 Our results suggest that eukaryotic cells face the challenge of avoiding negative

190 are maintained at high concentration inside eukaryotic cells, forming pools that fundamentally drive

191 rs in the successful of emergence of ancient eukaryotic cells from bacterial colonies.

192 n thousands of different gene transcripts in eukaryotic cells, from yeast to mammals, at an estimated

193 has probed the biophysical mechanisms of how eukaryotic cells generate forces during migration, littl

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

195 A typical higher eukaryotic cell has a spherical nucleus that is approxim

196 Cell shape changes during cytokinesis in eukaryotic cells have been attributed to contractile for

197 ounteract the breakdown of genome integrity, eukaryotic cells have developed a network of surveillanc

198 e DNA synthesis before the onset of mitosis, eukaryotic cells have evolved complex mechanisms to proc

199 In eukaryotic cells, histones are subject to a large number

200 We show that in eukaryotic cells, human ATP7B forms dimers that can be p

201 still poorly understood regulatory roles in eukaryotic cells, including as a signal for ubiquitinati

202 (START proteins) play important functions in eukaryotic cells, including the redistribution of phosph

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

204 lding proteins ubiquitously expressed in all eukaryotic cells, interact with and regulate the functio

205 The organization of the eukaryotic cell into discrete membrane-bound organelles

206 The organization of eukaryotic cells into distinct subcompartments is vital

207 Specifically, we propose that eukaryotic cells intrinsically explore their available g

208 The interior of the eukaryotic cell is a highly compartmentalized space cont

209 hlighting how the targeting apparatus of the eukaryotic cell is robust, interlinked and flexible.

210 Cytokinesis in eukaryotic cells is often accompanied by actomyosin cort

211 ge factor (GEF) that activates Rab11 in most eukaryotic cells is unresolved.

212 To understand the function of eukaryotic cells, it is critical to understand the role

213 with ubiquitin in the cytosol of a targeted eukaryotic cell, leading to destruction of host cell mem

214 and SLO have been extensively studied using eukaryotic cell lines, but the relative contribution of

215 ative protein targets were discovered from a eukaryotic cell lysate (Saccharomyces cerevisiae).

216 The evolution of the eukaryotic cell marked a profound moment in Earth's hist

217 tiated leading to formation of a pore in the eukaryotic cell membrane, which is made of IpaB and IpaC

218 In most eukaryotic cells, membrane fluidity is known to be regul

219 Sterols are vital components of eukaryotic cell membranes.

220 more than half of the total phospholipids in eukaryotic cell membranes.

221 maintaining transbilayer lipid asymmetry in eukaryotic cell membranes.

222 observed in other live cell membranes (e.g., eukaryotic cells, membranes of Bacillus vegetative cells

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

224 ion in mitochondria, a landmark signature of eukaryotic cell morphology.

225 ction of lamellipodia are common features of eukaryotic cell motility.

226 Most pre-mRNA transcripts in eukaryotic cells must undergo splicing to remove introns

227 The nuclear envelope (NE) of eukaryotic cells not only serves as a transverse scaffol

228 In eukaryotic cells, nutrients and growth factors regulate

229 In eukaryotic cells, one-third of all proteins must be tran

230 reveal that LPPO II are not toxic to either eukaryotic cells or model animals when administered oral

231 are essential for many metabolic pathways in eukaryotic cells, our findings identify the phosphorylat

232 olution of mitochondria and plastids and the eukaryotic cell per se.

233 hat cytosolic lipid droplets, present in all eukaryotic cells, play a key role in many cellular funct

234 Eukaryotic cells possess a remarkably diverse range of o

235 Permanent residency in the eukaryotic cell pressured the prokaryotic mitochondrial

236 To understand the mechanism by which eukaryotic cells prevent harmful R loops, we used human

237 In eukaryotic cells, protein synthesis typically begins wit

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

239 In eukaryotic cells, proteins are targeted to the proteasom

240 Many eukaryotic cells regulate their mobility by external cue

241 Eukaryotic cells rely on long-lived microtubules for int

242 y alternative for gene copy number variation.Eukaryotic cells rely on the ubiquitin-proteasome system

243 the structural complexity that characterizes eukaryotic cells remains unclear.

244 cell division cycle is the process by which eukaryotic cells replicate their chromosomes and partiti

245 The origin of eukaryotic cells represents a key transition in cellular

246 Eukaryotic cells require mechanisms to establish the pro

247 Most eukaryotic cells require peroxisomes, organelles housing

248 DNA replication in eukaryotic cells requires minimally three B-family DNA p

249 Transcription of protein-encoding genes in eukaryotic cells requires the coordinated action of mult

250 The mechanisms by which eukaryotic cells respond to the toxic effects induced by

251 In eukaryotic cells, RNA polymerase III is highly conserved

252 se (ISR) is a homeostatic mechanism by which eukaryotic cells sense and respond to stress-inducing si

253 Eukaryotic cells spend most of their life in interphase

254 ry processes and relationships that underlie eukaryotic cell structure.

255 ablishment of many biomolecular condensates, eukaryotic cell structures that concentrate diverse macr

256 represent a conserved process in specialized eukaryotic cells such as in mammalian hepatocytes and B-

257 and further into acidic vesicles present in eukaryotic cells such as protozoa.

258 mitochondrial membranes and conserved in all eukaryotic cells, such as the TOM complex and AtMic60, a

259 Increasing evidence in eukaryotic cells suggests that mechanical forces are ess

260 ile strategies to generate niches inside the eukaryotic cells that allow them to survive and prolifer

261 Structural features of 3D-reconstructed eukaryotic cells that are affected by DOF artifacts in s

262 smic reticulum (ER) is a single organelle in eukaryotic cells that extends throughout the cell and is

263 l, antenna-like structures on the surface of eukaryotic cells that harbor a unique set of sensory pro

264 omes are a functionally conserved feature of eukaryotic cells that play an important role in cell div

265 In the dividing eukaryotic cell, the spindle assembly checkpoint (SAC) e

266 In eukaryotic cells, the assembly of the multi-enzyme repli

267 In eukaryotic cells, the endoplasmic reticulum is essential

268 In eukaryotic cells, the gene expression status is strictly

269 In eukaryotic cells, the removal of misfolded proteins is p

270 nsertases have been found in prokaryotic and eukaryotic cells, the Sec61 complex and the Get complex

271 In eukaryotic cells, the soluble N-ethylmaleimide-sensitive

272 In eukaryotic cells, the ubiquitin-proteasome system (UPS)

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

274 at form a pore into the plasma membrane of a eukaryotic cell to deliver multiple effector proteins in

275 f PABP1 and poly(A)RNA and thus facilitating eukaryotic cells to attenuate protein synthesis and ener

276 ification important for both prokaryotic and eukaryotic cells to control a wide array of cellular fun

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

278 x in bacteria have been used successfully in eukaryotic cells to facilitate rapid and accurate cell l

279 ith the expansion of IDDs in the proteome of eukaryotic cells to increase the transport capacity of t

280 f multiple peroxisomal redox shuttles allows eukaryotic cells to maintain the peroxisomal redox statu

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

282 us proteins that associate with pre-mRNAs in eukaryotic cells to produce a multitude of alternatively

283 tous fingerlike protrusions, spawned by many eukaryotic cells, to probe and interact with their envir

284 In eukaryotic cells, transport of molecules between the nuc

285 ns that extend from the cell surface of many eukaryotic cell types.

286 s an evolutionary conserved process by which eukaryotic cells undergo self-digestion of cytoplasmic c

287 Eukaryotic cells undergo shape changes during their divi

288 nsive protein that is highly up-regulated in eukaryotic cells upon viral infection through both inter

289 Eukaryotic cells use microtubule-based intracellular tra

290 ecific roadblock to repress transcription in eukaryotic cells using guide RNAs (sgRNAs) to target cat

291 he core machinery for membrane fusion during eukaryotic cell vesicular trafficking.

292 te DHPSF imaging of up to 15-mum-thick whole eukaryotic cell volumes in three to five imaging planes.

293 routinely performed in both prokaryotic and eukaryotic cells, we expect this assay will be broadly a

294 trations in the endoplasmic reticulum of all eukaryotic cells where they serve an essential function

295 hese results reveal a mechanism conserved in eukaryotic cells whereby the ability of CAF-1 to bind DN

296 Endocytosis is a crucial cellular process in eukaryotic cells which involves clathrin and/or adaptor

297 nstrating recognition of archaeal viruses by eukaryotic cells which provides good basis for future ex

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

299 demonstrate that QRBF is also applicable to eukaryotic cells (yeast).

300 ol for genome editing and gene regulation in eukaryotic cells, yet how CRISPR-Cas9 contends with the