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1 ling forces that position the spindle during asymmetric cell division.
2 ture of DNA forms the primary determinant of asymmetric cell division.
3 lopmental biology addresses the mechanism of asymmetric cell division.
4  developmental disorders involving defective asymmetric cell division.
5 cell priming, founder cell establishment and asymmetric cell division.
6 n form without spindles, particularly during asymmetric cell division.
7 s the apical-basal polarity in epithelia and asymmetric cell division.
8  cell cortex underlies cell polarization and asymmetric cell division.
9 or proteins that position the spindle during asymmetric cell division.
10 ctate division axis and cleavage site during asymmetric cell division.
11 microtubules and position the spindle during asymmetric cell division.
12 lls, whereas PPAR-delta activation increased asymmetric cell division.
13 y and spindle orientation machineries during asymmetric cell division.
14 n of cell cycle subsystems and Caulobacter's asymmetric cell division.
15 ns epithelial tissue integrity and stem cell asymmetric cell division.
16  potentially useful models for understanding asymmetric cell division.
17 tenance of cell polarity and plays a role in asymmetric cell division.
18 the daughter cells a unique inheritance upon asymmetric cell division.
19  plant-specific solution to the challenge of asymmetric cell division.
20  are positioned near the cortex to allow the asymmetric cell division.
21 l mechanism for creating such differences is asymmetric cell division.
22 differentiation of support cells rather than asymmetric cell division.
23 rnal sensory organ (ESO), a classic model of asymmetric cell division.
24 indle positioning is an essential feature of asymmetric cell division.
25 lls and that equalizing centrosomes disrupts asymmetric cell division.
26 iate signaling, cell fate specification, and asymmetric cell division.
27 ferential gene expression in daughters of an asymmetric cell division.
28 GSC-niche junctions, fusome localization and asymmetric cell division.
29 n neuronal migration, neuronal polarity, and asymmetric cell division.
30 rientation with cortical polarity to promote asymmetric cell division.
31 the chaperone that participates with GlsA in asymmetric cell division.
32 tem for studying the molecular mechanisms of asymmetric cell division.
33 ifferent fates of daughter cells produced by asymmetric cell division.
34 the Notch-mediated cell fate decision during asymmetric cell division.
35 l step for generating cell diversity through asymmetric cell division.
36 /beta-catenin during a Wnt-signaling-induced asymmetric cell division.
37  suggests that these events are triggered by asymmetric cell division.
38 roteins, P granules, pronuclei migration and asymmetric cell division.
39 se spindle length, division orientation, and asymmetric cell division.
40 bly and rotation, two processes required for asymmetric cell division.
41 G-protein signaling plays important roles in asymmetric cell division.
42 c property of the daughter cell generated by asymmetric cell division.
43  in both extrinsic and intrinsic pathways of asymmetric cell division.
44 segregation of cell fate determinants during asymmetric cell division.
45 rited equally by daughter cells following an asymmetric cell division.
46 ing of SYS-1 promotes its degradation during asymmetric cell division.
47 ched actin networks, in PAN polarization and asymmetric cell division.
48 activated aPKC kinase and thought to promote asymmetric cell division.
49 es from this rule, which invariably leads to asymmetric cell division.
50 s for other cell types, ciliary disease, and asymmetric cell division.
51 eir diminished ability to rejuvenate through asymmetric cell division.
52 s of clones indicates a preferential mode of asymmetric cell division.
53 ar, suggesting that enucleation is a form of asymmetric cell division.
54 ined through the regulation of symmetric and asymmetric cell division.
55 ts as a tumor suppressor in GBM by restoring asymmetric cell division.
56 r Sanpodo (Spdo) to regulate cell fate after asymmetric cell division.
57 pensable for the production of self-renewing asymmetric cell divisions.
58 t is critical for the production of terminal asymmetric cell divisions.
59 and consider the implications of its role in asymmetric cell divisions.
60 t this domain is essential for repression of asymmetric cell divisions.
61 n and causes misorientation of symmetric and asymmetric cell divisions.
62 ain the activity of fate determinants during asymmetric cell divisions.
63  and an intrinsic polarity mechanism ensures asymmetric cell divisions.
64 lls that are created during embryogenesis by asymmetric cell divisions.
65 poptosis and mitotic potential in C. elegans asymmetric cell divisions.
66 lopment to generate unequal daughters during asymmetric cell divisions.
67  in metazoan cell polarity establishment and asymmetric cell divisions.
68 ell fate choices in C. elegans by regulating asymmetric cell divisions.
69                 We did not observe regulated asymmetric cell divisions.
70 sitioning is critical for both symmetric and asymmetric cell divisions.
71 , where it was assigned a regulatory role in asymmetric cell divisions.
72 egulation and function in both symmetric and asymmetric cell divisions.
73  extended G2-M phase and increased polarized asymmetric cell divisions.
74  paths are driven forward by a succession of asymmetric cell divisions.
75 r through a complex balance of symmetric and asymmetric cell divisions.
76 n size, and this appears to be important for asymmetric cell division [1, 2].
77 , 8], cell polarity maintenance [9, 10], and asymmetric cell division [11, 12].
78 d for differential cell fates resulting from asymmetric cell division [3].
79 umor-initiating cell phenotype by regulating asymmetric cell division, a process necessary for tumor
80 on of genes involved in shoot patterning and asymmetric cell division accompanies the transition from
81                                              Asymmetric cell division (ACD) is a crucial process duri
82                               The essence of asymmetric cell division (ACD) is the polarization of ce
83 tem cell-intrinsic model of self-renewal via asymmetric cell division (ACD) posits that fate determin
84                                              Asymmetric cell division (ACD) produces two daughter cel
85                                              Asymmetric cell division (ACD), a mechanism for cell-typ
86 scuteable gene, which is sufficient to drive asymmetric cell division (ACD).
87 d regulatory module that influences metazoan asymmetric cell division (ACD).
88  developmental plasticity in plant stem cell asymmetric cell division (ACD).
89 ell population, suggests a possible role for asymmetric cell division (ACD).
90 stablishment of polarity, cell identity, and asymmetric cell divisions (ACDs) in plants.
91 tenin signaling strategy to carry out serial asymmetric cell divisions (ACDs).
92 of beta-catenin in regulating cell fates and asymmetric cell divisions along the entire anterior-post
93                                              Asymmetric cell divisions also underlie cell fate divers
94 enes, known to regulate embryonic neuroblast asymmetric cell division, also regulate neuroblast self-
95  aPKC, and Cdc42, is best known for roles in asymmetric cell division and apical/basal polarity.
96 lar processes ranging from cell migration to asymmetric cell division and axon and dendrite specifica
97 of proteins known to play a critical role in asymmetric cell division and cell polarization is the pa
98 s by switching from mitotic proliferation to asymmetric cell division and differentiation.
99 r asymmetry during epithelial morphogenesis, asymmetric cell division and directed cell migration.
100                                Brat promotes asymmetric cell division and directs neural differentiat
101 cells are stem cells that self-renew through asymmetric cell division and generate patches of transit
102 roles for spatial and organizational cues in asymmetric cell division and inheritance.
103 ; this interaction is considered critical to asymmetric cell division and neuro-epithelium and epithe
104 ositioning and orientation are essential for asymmetric cell division and require microtubule-actin f
105 coupled cell-cycle control system, including asymmetric cell division and responses to external starv
106 summarize the molecular mechanisms governing asymmetric cell division and review recent findings poin
107 phila brat and demonstrate its regulation of asymmetric cell division and stem cell properties of gli
108 ine nucleotide exchange factor RIC-8 in both asymmetric cell division and synaptic vesicle priming in
109 on neoplastic behavior, in part by governing asymmetric cell division and the balance between self-re
110 R) and SCARECROW (SCR), cooperatively direct asymmetric cell division and the patterning of root cell
111 feration and differentiation associated with asymmetric cell division and their broader implications
112 ulatory proteins that influence invertebrate asymmetric cell division and vertebrate neuroepithelium
113  prior to metaphase plate centering leads to asymmetric cell divisions and daughter cells of unequal
114 ing the CD70/CD27 interaction by mAb induced asymmetric cell divisions and differentiation in AML bla
115 positioned nonrandomly by the integration of asymmetric cell divisions and intercellular signaling.
116 of extracellular Wnt ligand is essential for asymmetric cell divisions and male differentiation durin
117 PCH controls key regulators of cell fate and asymmetric cell divisions and modulates responsiveness t
118 (a mobile transcription factor), they direct asymmetric cell divisions and patterning of cell types.
119 en-activated protein kinase cascades, orient asymmetric cell divisions and prevent overproduction and
120 KK4/MKK5-MPK3/MPK6 causes the suppression of asymmetric cell divisions and stomatal cell fate specifi
121 eins of the Wnt family affect axon guidance, asymmetric cell division, and cell fate.
122 yeast Saccharomyces cerevisiae reproduces by asymmetric cell division, and has thus served as an attr
123 ions in transcription factor concentrations, asymmetric cell division, and Notch signalling--still of
124 haliana, stomatal development is preceded by asymmetric cell divisions, and stomatal distribution fol
125 ependent mitotic spindle positioning during (asymmetric) cell division, and Galpha(olf)-dependent odo
126 nnected with processes including cell cycle, asymmetric cell division, apoptosis and actomyosin-regul
127                            Cell polarity and asymmetric cell division are fundamental traits of all l
128                                              Asymmetric cell divisions are a fundamental feature of n
129                                              Asymmetric cell divisions are required for cellular dive
130                                        Early asymmetric cell divisions at blastula and gastrula stage
131 genitor cells and undergo multiple rounds of asymmetric cell division, ;budding off' smaller daughter
132  the heterogeneous tumor bulk, suggestive of asymmetric cell division, but an equally plausible expla
133 e we show that nonmuscle myosin II regulates asymmetric cell division by an unexpected mechanism, exc
134 e cytoplasm, suggesting that MOM-5 regulates asymmetric cell division by controlling the localization
135 f brain tumor (brat) leads to loss of normal asymmetric cell division by developing neural cells and
136 us, the PopZ polar scaffold protein supports asymmetric cell division by recruiting distinct sets of
137                                 SOPs undergo asymmetric cell division by segregating Numb, which inhi
138 d encode six different proteins required for asymmetric cell division by the worm zygote.
139 ins control both intercellular signaling and asymmetric cell divisions by distinct pathways.
140 larity plays an important role in regulating asymmetric cell divisions by neural progenitor cells (NP
141 face receptors during mitosis could generate asymmetric cell divisions by yielding daughters with dif
142                             Such an oriented asymmetric cell division causes development of healthy,
143 essful generation of different cell types by asymmetric cell division, cell differentiation should be
144 are critically involved in processes such as asymmetric cell division, cell polarity and neuronal dif
145 tein implicated in apicobasal cell polarity, asymmetric cell division, cell shape and cell cycle exit
146          Due to cell-to-cell variability and asymmetric cell division, cells in a synchronized popula
147                                  Prior to an asymmetric cell division, cellular components segregate
148    Sporulation in Bacillus subtilis requires asymmetric cell division, chromosome transfer into the s
149                           The orientation of asymmetric cell division contributes to the organization
150 ings here and argue that one such mechanism, asymmetric cell division, creates an early divergence in
151                Sporulation initiates with an asymmetric cell division, creating a large mother cell a
152                                              Asymmetric cell division, creating sibling cells with di
153  Acute exposure of GSCs to CBL0137 increased asymmetric cell division, decreased GSC marker expressio
154                                              Asymmetric cell divisions depend on the precise placemen
155  cellular contexts, including embryogenesis, asymmetric cell division, directional migration, and epi
156  manner, and AGS3 homologues are involved in asymmetric cell division during development.
157  in the retina maintained the preference for asymmetric cell division during regenerative responses.
158                                    Following asymmetric cell division during spore formation in Bacil
159 /SNF complex, and has been shown to regulate asymmetric cell divisions during C. elegans development.
160 n malformations of CMS are due to defects in asymmetric cell divisions during development.
161 t alleles of insensitive, reported to affect asymmetric cell divisions during sensory organ developme
162 are required for proper specification of key asymmetric cell divisions during stem cell initiation an
163 ses in animal cells, such as cell migration, asymmetric cell division, epithelial barrier function, a
164 cg2 modulates CSP cell cycle progression and asymmetric cell division, establishing a mechanistic lin
165 oth jumu and CHES-1-like are required during asymmetric cell division for the derivation of two disti
166                                              Asymmetric cell divisions generate cell fate diversity d
167                                              Asymmetric cell divisions generate cellular diversity.
168                                              Asymmetric cell divisions generate daughter cells with d
169                                              Asymmetric cell divisions generate sibling cells of dist
170                                              Asymmetric cell division generates cell diversity during
171            Recently discovered regulators of asymmetric cell division highlight differences in the me
172       PAN proteins become polarized prior to asymmetric cell division, however, the mechanism of this
173 l patterning events such as gastrulation and asymmetric cell division; however, little is known about
174  functions to orient mitotic spindles during asymmetric cell divisions; however, whether Ric-8A has a
175 cell-cycle kinetics and a premature shift to asymmetric cell divisions impairing progenitor cell pool
176 forces that position mitotic spindles during asymmetric cell division in C. elegans embryos.
177 er of the Dyrk family of protein kinases, in asymmetric cell division in C. elegans.
178                                              Asymmetric cell division in Caulobacter crescentus yield
179 ntage of CD44(+) PCa cells appear to undergo asymmetric cell division in clonal analyses.
180  are involved in directing cell polarity and asymmetric cell division in different organisms.
181 tic mechanisms might have evolved to dictate asymmetric cell division in diploid, higher eukaryotes a
182                           Rather, studies of asymmetric cell division in Drosophila and Caenorhabditi
183 endosomes to regulate signaling output after asymmetric cell division in Drosophila neural progenitor
184       The characterization and modulation of asymmetric cell division in lung cancer can provide insi
185  is likely to be relevant to cytokinesis and asymmetric cell division in other organisms.
186 PKs in the polarity establishment related to asymmetric cell division in plants.
187 ole for Lgl as a regulator of Sanpodo during asymmetric cell division in the adult PNS.
188 nse systems that regulate the cell cycle and asymmetric cell division in the bacterium Caulobacter cr
189  protein required for Notch signaling during asymmetric cell division in the CNS.
190  whether such an epigenetic mechanism causes asymmetric cell division in the recently sequenced fissi
191 ells and are capable of self-renewal through asymmetric cell division in vitro.
192      Cardioprotective kinase Pim-1 increases asymmetric cell division in vivo, but the ability of Pim
193 ictly controlled cell expansion is linked to asymmetric cell division in zygotes and stomatal lineage
194 derm, the regulation of axial properties and asymmetric cell divisions in a wide array of metazoans.
195                        By contrast, specific asymmetric cell divisions in Arabidopsis and grasses req
196         Stem cells execute self-renewing and asymmetric cell divisions in close association with stro
197  CYCD6;1, and regulates formative periclinal asymmetric cell divisions in endodermis and cortex/endod
198 eterminant and tumor suppressor Numb imposes asymmetric cell divisions in mammary stem cells by regul
199 l classes of molecules are known to regulate asymmetric cell divisions in metazoans, yet these molecu
200 ate segregation (NRTS) of chromosomes during asymmetric cell divisions in phylogenetically divergent
201                            Here, we consider asymmetric cell divisions in plants, highlighting the un
202  a related switch mechanism might operate in asymmetric cell divisions in the fly and nematode.
203  walls are often incorrectly oriented during asymmetric cell divisions in the leaf epidermis of maize
204 is thaliana) SPEECHLESS (SPCH) that initiate asymmetric cell divisions in the leaf protoderm layer an
205 echanism, that stratification occurs through asymmetric cell divisions in which the mitotic spindle o
206 owth of Candida albicans is characterized by asymmetric cell divisions in which the subapical mother
207          Much has been made of the idea that asymmetric cell division is a defining characteristic of
208                                              Asymmetric cell division is a mechanism for generating c
209 to mammals, cell-cycle progression during an asymmetric cell division is accompanied by precisely tim
210         Accordingly, the mechanisms by which asymmetric cell division is achieved have been extensive
211                                              Asymmetric cell division is an evolutionarily conserved
212                     In stem cell populations asymmetric cell division is believed to be crucial for m
213                                              Asymmetric cell division is common in biology and plays
214                       In the developing CNS, asymmetric cell division is critical for maintaining the
215 rinting/segregation epigenetic mechanism for asymmetric cell division is evolutionary conserved.
216                                              Asymmetric cell division is intensely studied because it
217 r phases as a result of stochastic events or asymmetric cell division is not fully understood.
218                                              Asymmetric cell division is of fundamental importance in
219 es that the facultative use of symmetric and asymmetric cell division is orchestrated by a polarity c
220 ism for G-protein-mediated cell polarity and asymmetric cell division is poorly understood.
221                                              Asymmetric cell division is the primary mechanism to gen
222 erstood, and the upstream signal to initiate asymmetric cell division is unknown.
223                                              Asymmetric cell division is utilized by a broad range of
224 polarization of intracellular components and asymmetric cell divisions is a fundamental part of metaz
225 ic centrosome maturation is not required for asymmetric cell division, it is required for proper cent
226           The initial step of sporulation is asymmetric cell division, leading to a large mother-cell
227                   It has been suggested that asymmetric cell division may promote initial cell divers
228 inhibitor Numb, and the resulting failure of asymmetric cell divisions may be responsible for the hyp
229                                       During asymmetric cell divisions, mitotic spindles align along
230                                    During an asymmetric cell division, molecular determinants are seg
231                                          The asymmetric cell divisions necessary for stomatal lineage
232          Finally, during a signaling-induced asymmetric cell division, NMY-2 is required for SRC-depe
233 ini have a stereotyped cleavage pattern with asymmetric cell divisions, nuclear migrations, and cell
234       Miranda polarization during neuroblast asymmetric cell division occurs by displacement from the
235       In lhp1 mutants, a second longitudinal asymmetric cell division occurs in the ground tissue ear
236                                              Asymmetric cell division occurs when a mother cell divid
237 ral root organs requires tightly coordinated asymmetric cell division of a limited number of pericycl
238 f the ascidian larva to show that, following asymmetric cell division of common progenitors, NK4/NKX2
239 x and maintaining cell size asymmetry during asymmetric cell division of Drosophila neuroblasts (NBs)
240 ouple spindle orientation to polarity during asymmetric cell division of Drosophila neuroblasts.
241  the differentiating daughter cells upon the asymmetric cell division of interfollicular progenitor c
242                                  Analysis of asymmetric cell division of maternal-zygotic dlg(sw) emb
243 that increase in frequency by exploiting the asymmetric cell division of oogenesis--present a potent
244 veal a critical molecular pathway underlying asymmetric cell division of radial glial progenitors in
245                                              Asymmetric cell division of radial glial progenitors pro
246                                              Asymmetric cell division of template DNA in tumor cells
247 itiation of the root meristem occurs when an asymmetric cell division of the hypophysis forms the dis
248 n and histamine is postulated as is also the asymmetric cell divisions of precursor cells to produce
249 e after undergoing two consecutive cycles of asymmetric cell divisions: only one among four "granddau
250     We reveal that the function of CDKA;1 in asymmetric cell divisions operates through a transcripti
251     Surprisingly, APCs are not essential for asymmetric cell division or the stereotyped division axi
252 , such as mitotic spindle orientation during asymmetric cell division, or the establishment of apical
253                                              Asymmetric cell division plays a crucial role in cell di
254                                              Asymmetric cell division plays a major role in the gener
255 required for regulation of MAGUK function in asymmetric cell division, possibly through regulation of
256 retain preexisting canonical histones during asymmetric cell divisions, probably as a mechanism to ma
257                                              Asymmetric cell divisions produce all 302 neurons of the
258                                              Asymmetric cell divisions produce daughter cells with di
259                       Formative, also called asymmetric, cell divisions produce daughter cells with d
260 rulation in Bacillus subtilis begins with an asymmetric cell division producing two genetically ident
261 a decrease in the frequency of symmetric and asymmetric cell divisions producing daughter cells capab
262 ontrol changes in actomyosin dynamics during asymmetric cell division remain unclear.
263                                              Asymmetric cell division requires mitotic spindle alignm
264 hila, Brain Tumor (Brat), leads to disrupted asymmetric cell division resulting in dramatic neoplasti
265  chromosome number occurs through two highly asymmetric cell divisions, resulting in one large egg an
266 ator of cell proliferation and the timing of asymmetric cell division that are important for final ro
267         There are many examples, however, of asymmetric cell division that can generate sibling cell
268 mesoderm, this subdivision is a result of an asymmetric cell division that leads to the formation of
269 , but represses the subsequent, longitudinal asymmetric cell divisions that generate the two cell typ
270 mal tissue homeostasis is maintained through asymmetric cell divisions that produce daughter cells wi
271 event in the preparation of mother cells for asymmetric cell divisions that produce daughters of dist
272 cellular diversity is often achieved through asymmetric cell divisions that produce two daughter cell
273 are key regulators of root growth and of the asymmetric cell divisions that separate the ground tissu
274                                       During asymmetric cell division, the mitotic spindle and polari
275                                              Asymmetric cell division, the partitioning of cellular c
276                                       During asymmetric cell divisions, the core polarity machinery (
277 n hlh-14 mutants results from a defect in an asymmetric cell division: the PVQ/HSN/PHB neuroblast ina
278 aromyces cerevisiae, are excellent models of asymmetric cell division, this phenotype occurs in all c
279 s breathing pores in the epidermis, requires asymmetric cell division to differentiate highly special
280 h the physical process of cytokinesis during asymmetric cell division to ensure the fidelity of daugh
281                  Memory T cells may thus use asymmetric cell division to generate cellular heterogene
282 ally express stem cell genes and can undergo asymmetric cell division to generate PSA(+) cells.
283 in response to hormonal stimulation, undergo asymmetric cell division to produce a polar body and cle
284 ed by Muller Glia (MG) dedifferentiation and asymmetric cell division to produce multipotent progenit
285                     Adult stem cells undergo asymmetric cell division to self-renew and give rise to
286                Stem and progenitor cells use asymmetric cell divisions to balance proliferation and d
287 progenitors, which then undergo symmetric or asymmetric cell divisions to generate the final populati
288 only exhibited by one daughter cell after an asymmetric cell division, we study how BASL differential
289                              In compromising asymmetric cell divisions, we uncover profound defects i
290                               They divide by asymmetric cell division where one daughter remains a st
291                                              Asymmetric cell division--where two dissimilar daughter
292 their polarity to generate cell diversity by asymmetric cell division, whereas differentiated cells u
293 antigen-presenting cells (APCs), can undergo asymmetric cell division, wherein the daughter cell prox
294                                              Asymmetric cell division, which includes cell polarizati
295 ls of Bacillus subtilis into spores involves asymmetric cell division, which precedes complete chromo
296  neurogenesis, we propose that Numb-mediated asymmetric cell divisions, which diversify many cell fat
297                         These include highly asymmetric cell divisions, which give rise to very small
298  in which FGF generates suprabasal tissue by asymmetric cell division, while Shh triggers cell rearra
299 hrough a stereotyped series of symmetric and asymmetric cell divisions whose frequency and orientatio
300 ontrol of gene expression, culminating in an asymmetric cell division yielding distinct daughter cell

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