ライフサイエンスコーパス: mature cell

1 ge repopulating potential and, eventually, a mature cell).

2 ficiency does not impact the activity of the mature cell.

3 etal structure during the development of the mature cell.

4 mass than lineage-committed progenitors and mature cells.

5 multiple rounds of exchange between EPCs and mature cells.

6 sduction but did not disrupt transduction in mature cells.

7 or survival of oligodendrocyte progenitor or mature cells.

8 somes subsequently damaged by other means in mature cells.

9 normal homeostatic production of functional mature cells.

10 ciated with abnormal maturation or number of mature cells.

11 o display the NK1.1 marker characteristic of mature cells.

12 d in hyperpolarized E(Cl) similar to that of mature cells.

13 cells to an approximately linear relation in mature cells.

14 direct acinar-to-ductal phenotypic switch in mature cells.

15 ic cells (DCs) must differentiate into fully mature cells.

16 rythroblasts and young reticulocytes than in mature cells.

17 trol self-renewal potential in both stem and mature cells.

18 munorestorative capacity reflects effects on mature cells.

19 rvous system give rise to different types of mature cells.

20 oietic progenitors that are not expressed in mature cells.

21 tion of new buds and induction of capsule on mature cells.

22 as 27 +/- 9 pN, compared to 54 +/- 14 pN for mature cells.

23 bset, and it decreases to low levels in more mature cells.

24 in ontogeny, but not for the homeostasis of mature cells.

25 ineage throughout development, as well as on mature cells.

26 reduced, resulting in a much lower yield of mature cells.

27 xpression is restricted to subpopulations of mature cells.

28 ial effects of CD5 signaling in immature and mature cells.

29 he regulation of cytokine gene expression in mature cells.

30 sitional hepatocytes) that have replaced the mature cells.

31 elevant for physiological responses in these mature cells.

32 eutrophils but also modulate the function of mature cells.

33 rface density of the coreceptor than do more mature cells.

34 s local airway eosinophil differentiation to mature cells.

35 ture cells and a defect in THPO clearance in mature cells.

36 he gene in response to an external signal in mature cells.

37 ase of myeloid progenitors and a decrease of mature cells.

38 proliferating followed by a decline in more mature cells.

39 nd to systemic feedback from progenitors and mature cells.

40 nsitory stages before terminating into fully mature cells.

41 xt influences forced transdifferentiation of mature cells.

42 le intercellular contacts are formed between mature cells.

43 ge differentiation into single-positive (SP) mature cells.

44 days in vitro) against induced apoptosis and mature cells (5+ days in vitro) against glutamate toxici

45 ve embryonic stages from gastrulation to the mature cell, a period of 24 h.

46 he most striking phenotype was cell death in mature cells after a delay of 3-4 weeks.

47 c gain or loss of expression of miR-17-92 in mature cells after activation resulted in striking recip

48 differentiating to produce large numbers of mature cells -- all without depletion of the stem cell p

49 ation complexes but that some, possibly more mature cells also accumulated substantial viral RNA in t

50 h the midacinar region (zone 2), to the most mature cells and apoptotic cells found pericentrally in

51 s that formed cytoplasmic granular bodies in mature cells and during infection of mouse brain.

52 subunit has been shown to be associated with mature cells and is linked to large neurons in the cereb

53 act presynaptic terminals apposing spines on mature cells and on newborn neurons.

54 include the active destruction of the oldest mature cells and possible control by apoptosis.

55 egulation of CD86, CD69, and MHC class II in mature cells and receptor editing in immature cells.

56 Although the production of nonadherent mature cells and their progenitors in nicotine-treated L

57 The ability to propagate mature cells and tissue from pluripotent stem cells offe

58 these early stages was somewhat less than in mature cells and varied from cell to cell.

59 cess, and 2) Trps1 represses the function of mature cells and, consequently, restricts the extent of

60 In wild-type sepals, ROS accumulate in maturing cells and limit organ growth, suggesting that R

61 cloning capacity, impaired development into mature cells, and HSC and Meg transcription signatures.

62 ge-restricted stem cells, for maintenance of mature cells, and, in the future, for implantable, vascu

63 Functional mature cells are continually replenished by stem cells t

64 sion of MDC within the medulla, because more mature cells are found there.

65 es reconstructed from expression profiles of mature cells are not only consistent with current experi

66 Fully mature cells are postmitotic, process-bearing cells that

67 y be a potent therapeutic approach to render mature cells arising from transduced stem cells resistan

68 t acts predominantly to reduce the number of mature cells, as well as the function of peripheral iNKT

69 small, immature osteoclasts on day 2 and in mature cells at later times.

70 aturation, ranging from blasts to terminally mature cells belonging to all 3 lineages, were represent

71 f dendritic arborization, and acquisition of mature cell body morphology, we show that granule cell m

72 These results suggest that following ADX, mature cells born during the 1st postnatal week die, whe

73 death is important in controlling activated mature cells, but little is known about possible functio

74 essing cells differentiate into all types of mature cells, but their capacity for endocrine different

75 n into active stem cells, or, alternatively, mature cells can de-differentiate into stem-like cells o

76 initiated, as well as the means by which the maturing cell can commit to development along a specific

77 ating oligodendrocytes were transitioning to mature cells capable of generating new myelin sheaths.

78 t least some molecular pathways with that of mature cells (CD18 and PECAM-1), but is differently affe

79 specification of the relative intensities of mature cell-cell adhesions.

80 m cells, throughout their development and as mature cells, cells of the immune system find themselves

81 marker protein transferrin receptor (TfR) in mature cells centers on directed transport to the dendri

82 ly in a fraction of the population to supply mature cells, coincident with maintenance of the undiffe

83 S cell-derived DCs (ES-DCs) represented less mature cells compared with bone marrow-derived DCs.

84 nificant survival advantage relative to more mature cells, consistent with the idea of chemotherapy t

85 ghly chemotactic for 2-wk-old cells, but not mature cells, correlating with a loss of mRNA for the LT

86 mmit to the osteoclast phenotype and how the mature cell degrades bone.

87 etween the marrow reticulocyte stage and the mature cell, demonstrating that the mechanical stability

88 f SIV-naive monkeys the majority of mDC were mature cells derived from skin that expressed high level

89 ells, indicating that significant numbers of mature cells die in response to ADX.

90 did not decrease, suggesting that these less mature cells do not die following ADX.

91 opment, but inhibition of lipid synthesis in mature cells does not involve nuclear ER-alpha.

92 rants (RTEs), contrarily to peripheral naive mature cells, efficiently differentiate into Treg on tra

93 In less mature cells, EphB4 depleted primitive cells, as measure

94 of human monocyte-derived macrophages, only mature cells exhibited TNF-alpha-induced suppression of

95 it the renin phenotype expressed Akr1b7, and maturing cells expressed angiogenic factors necessary fo

96 of early immigrants rather than entrance of mature cells from the circulation.

97 atopoietic stem/progenitor cells (HSPCs) and mature cells from the myeloid and lymphoid lineages.

98 n the airways relative to the recruitment of mature cells from the peripheral circulation to the deve

99 f hematopoietic progenitors and also affects mature cell function.

100 is, including stem/progenitor cell, and more mature cell, function.

101 f differentiation from stem to progenitor to mature cell has increased from blood to include a variet

102 cell-mediated immunity, whose expression in mature cells has been reported to be restricted to T and

103 rcation membrane system (DMS), a hallmark of mature cells, has been proposed as the source of proplat

104 cell differentiation or dedifferentiation of mature cells have been described in various systems, but

105 er-individual differences in stem-progenitor-mature cell hierarchy in adult organs.

106 phenotypic heterogeneity in stem-progenitor-mature cell hierarchy of the normal breast.

107 These properties make the mature cell ideally suited for fine intensity discrimina

108 and with a delay in the appearance of fully mature cells in cultures undergoing granulocyte macropha

109 omeostatic mechanisms and thus the number of mature cells in most lineages remained within normal lim

110 ting macrophages to allow their induction in mature cells in response to an appropriate stimulus.

111 asal epithelial cells compared with the more mature cells in the superficial layer of the normal stra

112 e peripheral circulation and the re-entry of mature cells in the vessel wall back into cell cycle.

113 oximately 350-fold), with a complete lack of mature cells in thymus, spleen, and liver.

114 Activation in mature cells instead stimulated hypertrophy, matrix mine

115 Activation to the mature cell-invasive toxin involves palmitoylation of ly

116 a multipotent stem or progenitor state to a mature cell is critically important.

117 Thus, it remains unclear how feedback from mature cells is conveyed to HSCs to adjust their prolife

118 In mature cells, labeling was present in both cell bodies a

119 stem cells maintain and regenerate multiple mature cell lineages in the olfactory epithelium.

120 em cells, and model 2 for the maintenance of mature cell lineages.

121 Mature cell lines produced TNFalpha when stimulated with

122 In conclusion, neither SCC development nor mature cell maintenance is dependent on intact trigemina

123 nuclear antigen but did not express the more mature cell markers NeuN and Hu, suggesting that they we

124 rogenitor cells grown in serum expressed the mature cell markers opsin, but few cells expressed glial

125 ian stem cell systems where large numbers of mature cells must be continuously produced throughout ad

126 e self-renewal and differentiation such that mature cells necessary for tissue function can be genera

127 The production of mature cells necessitates that lineage-committed progeni

128 The action potentials of the mature cell occur only on stimulation, and are 10 times

129 The differentiated state of mature cells of adult organisms is achieved and maintain

130 alysing c-myb(-/-) chimaeras we show that no mature cells of any lymphoid or myeloid lineage can be d

131 aughter cells that are destined to commit to mature cells of different specific lineages.

132 limited by embryonic lethality or absence of mature cells of interest, creating the need for alternat

133 m cells (MSCs), which can differentiate into mature cells of multiple mesenchymal tissues including f

134 essivity factor for DNA polymerase delta, in mature cells of Nicotiana benthamiana.

135 cells have been shown to differentiate into mature cells of nonhematopoietic tissues, such as hepato

136 d with specific cytokine combinations toward mature cells of particular types.

137 tic growth and functions associated with the mature cells of specific daughter lineages (such as mega

138 at display a phenotype characteristic of the mature cells of that tissue.

139 at the apex of a hierarchy that produces all mature cells of the blood.

140 development from hematopoietic stem cells to mature cells of the hematolymphoid system involves progr

141 In contrast, mature cells of the lymphoid lineages expressed little t

142 are only released to the plasma membrane in mature cells of the olfactory receptor neuron lineage.

143 s expressed in hematopoietic progenitors and mature cells of the three main hematopoietic lineages.

144 lls with the potential to differentiate into mature cells of various organs.

145 eration is impaired, transdifferentiation of mature cells or differentiation of stem cells allows pro

146 Cancer may arise from dedifferentiation of mature cells or maturation-arrested stem cells.

147 y altered progenitor population function and mature cell output.

148 ed that acinar cells lacking ATF3 maintain a mature cell phenotype during pancreatitis, a finding sup

149 ely 1 week, remaining viable and with stable mature cell phenotypes for more than 8 weeks.

150 and survival, with dose-dependent effects on mature cell phenotypes.

151 rcentage of BrdUrd-labeled cells that showed mature cell phenotypes.

152 role of endocytic membrane remodeling in the maturing cell plate while the plate is stabilized by cal

153 ited from the cytoplasm to the expanding and maturing cell plate.

154 s targeted to the sites of cell division and mature cell poles where, in B.subtilis, it controls the

155 t is targeted to midcell and retained at the mature cell poles.

156 mplete, SP rings exhibited two properties of mature cell poles: they behaved as though composed of in

157 ate copper as they differentiate into a more mature cell population and this accumulation is not refl

158 During organogenesis, the final size of mature cell populations depends on their rates of differ

159 L), using highly enriched CML stem cells and mature cell populations in vitro.

160 is unknown whether this reflects changes in mature cell populations or whether the IL-23-driven coli

161 r the transdifferentiation of more plentiful mature cell populations.

162 ning the potential to differentiate into all mature cell populations.

163 ytoplasmic GR, while abventricular NSPCs and mature cells primarily expressed nuclear GR.

164 ve distribution of PAI-2 in the postmitotic, maturing cells prior to terminal keratinization and deat

165 nmemory pool, the number of naive follicular mature cells produced per transitional B cell is 3- to 6

166 poietic progenitors, which dynamically drive mature cell production, and hematopoietic stem cells (HS

167 efects from alterations in the physiology of mature cells, Rbfox1 and Rbfox2 were deleted from mature

168 lication of progenitors and the life-span of mature cells, reflecting the timing of death by apoptosi

169 fic fugetaxis-inducing factors to which only mature cells respond.

170 AML, because induced deletion of the gene in mature cells resulted in a similar phenotype.

171 cells; however, the mechanism by which these mature cells sense systemic insulin demand and initiate

172 the memory CD8+ T cell response suggest that mature cells should be considered as immunotherapeutic a

173 and biomass, as no changes were detected in mature cell size, specific leaf area, or relative photos

174 e cells specialized for antigen capture into mature cells specialized for T cell stimulation.

175 ce expression is restricted primarily to the mature cell stage during development.

176 pressed on B cells from the immature through mature cell stages.

177 e expression of markers associated with more mature cell states was expanded.

178 proliferation and greater expansion of more mature cell subsets.

179 ein that is proteolytically cleaved to yield mature cell surface glycoproteins gp40 and gp15, which a

180 Finally, we show that the increased mature cell surface LDLR in the presence of RAP coexpres

181 on mice also expressed higher levels of more mature cell surface markers, additionally linking inflam

182 in particular lymphoid cells possessing more mature cell surface markers, comprise the human componen

183 h these stem cells expressed a somewhat more mature cell surface phenotype than the initial yolk sac

184 CD34+/c-kit+ cells or cells expressing more mature cell surface phenotypes.

185 nthesized invariant chain-associated MHC-II, mature cell surface pMHC-II complexes internalize follow

186 135 and 125 kD; the 135-kD band represented mature cell surface receptor containing sialic acid and

187 ity oLH binding component contributed by the mature cell surface receptor.

188 whereas hCG cannot discriminate between the mature cell surface wild-type receptor and an intracellu

189 inities of two populations of rLHR where the mature, cell surface form binds oLH with a higher affini

190 of Notch by furin is required to generate a mature, cell surface heterodimeric receptor that can be

191 52P) selectively increased polyploidization, mature cell-surface marker expression, and apoptosis of

192 signaling pathways, induced cleavage of the mature cell-surface receptor.

193 steoblast precursor recruitment and promotes mature cell survival.

194 differentiated hematopoietic cells and fewer mature cells than controls.

195 henotype remains necessary, because the most mature cells that can be produced with current systems e

196 Ideal grafts should contain HSC plus mature cells that confer only the benefits of protection

197 ntal differences influence the properties of mature cells that exit the thymus and seed peripheral ly

198 and find CD34+ progenitor cells and various mature cells that harbor preleukemic mutations.

199 direct progeny of mutated stem cells or more mature cells that reacquire stem cell properties during

200 In mature cells, the core enhancer had low activity and req

201 ced as myeloid precursors differentiate into mature cells, then drops as monocytes further differenti

202 ay translate into effects on the majority of mature cells, thereby providing a strategy for potentiat

203 of human pluripotent stem cells (hPSCs) into mature cells, tissues and organs holds major promise for

204 ert a diseased cell to a healthy state, or a mature cell to a pluripotent state.

205 frequently requires the dedifferentiation of mature cells to a condensed mesenchymal blastema, from w

206 ed cells and (ii) during the exposure of the mature cells to an actin cytoskeleton disrupting drug.

207 wound healing, stem cells provide functional mature cells to meet acute demands for tissue regenerati

208 However, it is now possible to reprogram mature cells to pluripotency.

209 d and offer an initial strategy for inducing mature cells to switch their fate.

210 Ee-BAM1 also surrounds the amyloplasts in mature cells toward the base of the bud.

211 These maturing cells transition from a proliferative state to

212 s had the potential to develop into only one mature cell type ('uni-lineage potential'), bi- and rare

213 mediate differentiation of hPS cells into a mature cell type, independent of soluble inductive facto

214 e and differentiate to replace dead or dying mature cell types and maintain the integrity and functio

215 as appears to lack progenitor cells, and its mature cell types are maintained by the proliferation of

216 Lineage commitment and differentiation into mature cell types are mostly considered to be unidirecti

217 d progenies that are generally applicable to mature cell types as well.

218 The generation of mature cell types during pancreatic development depends

219 have been functionally shown to generate all mature cell types for the lifetime of the organism.

220 Our results indicate that, whereas mature cell types in each organ may have unique developm

221 n epithelium, and suggest that plasticity of mature cell types may play a role in the generation of n

222 tages of embryogenesis to differentiation of mature cell types of all three germ layers from pluripot

223 enitor cells (TBPCs), which give rise to the mature cell types of chorionic villi-syncytiotrophoblast

224 xpressing progenitor cells contribute to all mature cell types of the retina.

225 These two phenotypically mature cell types show a high degree of plasticity, whic

226 enewal with differentiation into the various mature cell types to maintain tissue homeostasis.

227 e to at least fourteen functionally distinct mature cell types, and represents the best characterized

228 enriched populations when compared with more mature cell types, and that this gene is essential for t

229 Adult blood contains a mixture of mature cell types, each with specialized functions.

230 liferate and differentiate into a variety of mature cell types.

231 intain their potential to differentiate into mature cell types.

232 stimulation they are capable of regenerating mature cell types.

233 s properties to stem-like cells than to more mature cell types.

234 ntiation, resulting in a failure to generate mature cell types.

235 s progenitors but also differentiated toward mature cell types.

236 n the larval lymph gland gives rise to three mature cell types: plasmatocytes, lamellocytes, and crys

237 he theoretical potential to develop into all mature cell types; however, the actual ability to develo

238 ntiation and is not known to be inducible in mature cells under physiological conditions.

239 (1) The matured cells undergo a selective turnover of mRNA encod

240 New capsule formed by mature cells upon induction of synthesis is added at the

241 n have short NRL ranging from 160 to 189 bp, mature cells usually have longer NRLs ranging between 19

242 t cell population thought to be derived from mature cells via dedifferentiation.

243 The mature cell wall of B. anthracis is resistant to digesti

244 We show that incorporation of mature cell wall precursor, UDP-MurNAc-pentapeptide, is

245 reactions of cell wall synthesis, generating mature cell wall-linked surface protein.

246 agine (Asp/Asn, Asx) bridges are specific to mature cell wall.

247 and remain associated with primary PD in the mature cell wall.

248 structure that is not incorporated into the mature cell wall.

249 were polarized to regions of the cell with a mature cell wall; they were absent from small buds and t

250 oteichoic acids is 3:2; and (iii) 50% of the mature cell-wall binding sites for a fluorinated oritava

251 Molecular models of the mature cell-wall complexes that are consistent with inte

252 scent cross wall or "cell plate" and also in mature cell walls.

253 In contrast, Ca2+ entry in mature cells was confined to the action potential itself

254 sing higher levels of GSK3beta compared with mature cells was selectively enhanced by stem cell facto

255 expression data available are only from the mature cells, we have some challenges in identifying tra

256 e compared to their corresponding adipocytic maturing cells, we identified a group of genes overexpre

257 okines and chemokines, indicating that these mature cells were functionally competent in the context

258 Nevertheless, the different lineages of mature cells were produced in normal numbers in vitro.

259 Although effector genes characteristic of mature cells were upregulated late, coincident with morp

260 lly, and del(12p) occurs postnatally in more mature cells with a structure that suggests the involvem

261 g and cancer, was particularly widespread in mature cells with an extended lifespan.

262 sult typically in partial differentiation to mature cells with under- or overexpression of adult tiss

263 hown further maturation and ultimate loss of matured cells with continuing therapy.

264 , a carbohydrate antigen expressed on highly mature cells within the CD56(dim)CD16(+) NK cell compart

265 thymocyte development caused an increase in mature cells within the thymus.