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1 granulosa cell compartment of the mammalian ovarian follicle.
2 ractions with somatic granulosa cells of the ovarian follicle.
3 triggered by luteinizing hormone (LH) in the ovarian follicle.
4 on of TAFII105 in the granulosa cells of the ovarian follicle.
5 by which a mature oocyte is released from an ovarian follicle.
6 ch changes rapidly with luteinization of the ovarian follicle.
7 oocytes during their development within the ovarian follicle.
8 red by its own multi-cellular structure, the ovarian follicle.
9 e relies on the protected environment of the ovarian follicle.
10 ell-to-cell communication network within the ovarian follicle.
11 eceptors in the mural granulosa cells of the ovarian follicle.
12 al from the surrounding somatic cells in the ovarian follicle.
13 a genome-scale metabolic model of the mouse ovarian follicle.
14 , and evolutionary conservation of mammalian ovarian follicles.
15 he assembly, preservation, and maturation of ovarian follicles.
16 cells and their projections in mouse antral ovarian follicles.
17 genes are expressed in developing mammalian ovarian follicles.
18 t human gene required for the maintenance of ovarian follicles.
19 in adult females AMH is produced by growing ovarian follicles.
20 genic female revealed eGFP expression in her ovarian follicles.
21 study the hormonal regulation of atresia in ovarian follicles.
22 s associated with major increases of cAMP in ovarian follicles.
23 at fail to break down, leading to polyovular ovarian follicles.
24 ation with developmentally late preovulatory ovarian follicles.
25 nts and 11.8% of prepubertal patients showed ovarian follicles.
26 nergy and building blocks for the developing ovarian follicles.
27 synthesized by the granulosa cells (GCs) of ovarian follicles.
28 rimordial germ cells, meiotic germ cells and ovarian follicles.
29 ween printed layers, affects the survival of ovarian follicles.
30 d serum estrogen and higher numbers of large ovarian follicles.
31 th the interpretation of these structures as ovarian follicles.
32 usive expression of R-spondin2 in oocytes of ovarian follicles.
33 lcyclohexene diepoxide (VCD, n=8) to deplete ovarian follicles.
34 s, short-term in vitro activation of dormant ovarian follicles after stimulation of the PI3K-Akt path
35 between the somatic cells and oocyte of the ovarian follicle and is crucial for the regulation of me
36 quired to maintain meiotic arrest within the ovarian follicle and suggests that the follicle may keep
44 llerian hormone (AMH) is produced by growing ovarian follicles and provides a diagnostic measure of r
45 cles have demonstrated a high sensitivity of ovarian follicles and spermatogenic cells to HZE particl
46 and coordinate the development of mammalian ovarian follicles and that the rate of follicular develo
47 ceptors are required for the early growth of ovarian follicles and that they exert this function by p
49 ongly expressed by granulosa cells in normal ovarian follicles, and by ovarian dysgerminomas and gran
50 els primarily in ova cytoplasm of developing ovarian follicles, and in the nucleus of spermatogonia a
52 pellucida in the functional and degenerative ovarian follicles, and the ovaries remained histological
58 ties abrogated LH-induced steroidogenesis in ovarian follicles but not MA-10 cells, suggesting that L
59 In conclusion, obesity disturbs the equine ovarian follicle by promoting lipid accumulation and alt
60 and triggers the rupture of the preovulatory ovarian follicle by stimulating proteolysis and apoptosi
61 ion of luteinizing hormone (LH) on the mouse ovarian follicle causes meiotic resumption by inhibiting
62 H) in the outer granulosa cells of mammalian ovarian follicles causes meiosis to resume in the oocyte
64 drive Sd-mediated cell proliferation in the ovarian follicle cell epithelium in response to mechanic
67 ATD, and enzymatic and manual removal of the ovarian follicle cell layers significantly increased spo
68 protein is initially expressed uniformly in ovarian follicle cell nuclei, and is subsequently downre
71 fly Drosophila melanogaster, where polyploid ovarian follicle cells amplify genomic regions containin
72 s of chorion (eggshell) proteins, Drosophila ovarian follicle cells amplify the chromosomal loci cont
73 f membrane skeletal components in Drosophila ovarian follicle cells and in somatic clones of mutant c
75 velopmental gene amplification in Drosophila ovarian follicle cells as a model to investigate how chr
77 al for viability, although it is required in ovarian follicle cells for normal eggshell development.
78 lification at the chorion loci in Drosophila ovarian follicle cells is a model for the developmental
79 two clusters of chorion genes in Drosophila ovarian follicle cells is essential for rapid eggshell b
81 patterning by regulating pipe expression in ovarian follicle cells, before its previously described
83 lls acquire cell behaviors characteristic of ovarian follicle cells, including incomplete cytokinesis
86 lamenco locus, which is expressed in somatic ovarian follicle cells, suggesting a role for piRNAs bey
87 overexpression of sprouty in wing veins and ovarian follicle cells, two other tissues where EGF sign
89 nes all contribute to replication control in ovarian follicle cells, which become 16C polyploid and s
91 m requires the activity of the nudel gene in ovarian follicle cells, which provide dorsoventral posit
101 Taken together, these results show that ovarian follicles contain membrane-associated beta-arres
102 ant BaP dose x Gclm genotype interactions on ovarian follicle counts and ovarian tumor multiplicity a
105 in ovarian transcriptomes and reductions in ovarian follicle density between juvenile alligators fro
108 Activation of a limited pool of diminishing ovarian follicles determines women's reproductive lifesp
111 EB-containing silicone capsule also reduced ovarian follicle development and significantly inhibited
113 many of the signaling pathways orchestrating ovarian follicle development are known, the downstream t
119 vely studied in multiple organs, its role in ovarian follicle development remains largely unknown.
122 display reduced fertility due to defects in ovarian follicle development, decreased efficiency of ov
123 able, and the most marked defect is abnormal ovarian follicle development, resulting in impaired fert
124 ls has been limited due to dynamic nature of ovarian follicle development, thus warranting a systems
125 roles for zinc in preceding stages in early ovarian follicle development, when cooperative interacti
133 that the Hippo signaling pathway influences ovarian follicle development; however, its exact roles r
136 were conducted to characterize divergence in ovarian follicle dynamics and transcriptomes between sit
138 logous tissues including human placenta, the ovarian follicle epithelium of matrotrophic poeciliid fi
141 mone/choriogonadotropin receptor (LH/CGR) in ovarian follicles exhibits desensitization of effector a
143 enile hormone and/or serotonin in Drosophila ovarian follicle formation, but also a cocaine-sensitive
144 The severe oocyte loss observed and lack of ovarian follicle formation, together with the patterns o
149 (WNT) signaling pathway in the regulation of ovarian follicle growth and steroidogenesis are now esta
152 ur RNA pulldown (FUS, PA2G4 and TRA2beta) in ovarian follicles in a FMR1 premutation mouse model.
153 logically, lesions appear as areas devoid of ovarian follicles in all stages of development that have
159 yte and the somatic cell compartments of the ovarian follicle is highly coordinated; this coordinatio
161 mammalian ovary formation, the production of ovarian follicles is accompanied by an enormous loss of
163 ablished dogma that the initial endowment of ovarian follicles is not supplemented by an appreciable
165 one/choriogonadotropin receptor (LH/CG R) in ovarian follicles is triggered by activation of ADP-ribo
166 ligand (KL), a product of granulosa cells in ovarian follicles, is a putative regulator of oocyte dev
170 and molecular processes that regulate mouse ovarian follicle maturation and ovulation with important
171 ion may have physiologic implications during ovarian follicle maturation given that both receptors ma
172 present pharmacological data that Drosophila ovarian follicle maturation requires COX-like activity a
173 h much has been learned about the process of ovarian follicle maturation through studies of oogenesis
176 ic oophorectomies, suggest that depletion of ovarian follicles might underlie the epidemiological fin
177 eroids promoted oocyte maturation in several ovarian follicle models, doing so by signaling through c
178 lso greatest on high P:C diets (1:1) whereas ovarian follicle number was greatest on P:C 3:1 associat
181 lly expressed between lines in the ovary and ovarian follicles of different size classes, respectivel
184 the transcriptional landscape of laying hen ovarian follicles, offering a foundation for further exp
185 The Drosophila ovariole tip produces new ovarian follicles on a 12-hour cycle by controlling nich
187 ls is critical for the normal development of ovarian follicles, perturbations in oocyte-GC communicat
188 Thus, although the somatic compartment of ovarian follicles plays an essential role in the mainten
189 ood from germ-line stem cells to sustain the ovarian follicle pool has recently generated controversy
190 izing the role of Foxo3 as a guardian of the ovarian follicle pool in mammals and a potential determi
191 rgely results from the depletion of a finite ovarian follicle pool that is produced during embryonic
193 ritical for LH-induced steroid production in ovarian follicles, probably through matrix metalloprotei
194 oidogenesis, breast and prostate growth, and ovarian follicle recruitment, all of which are processes
197 kout or pharmacological inhibition preserved ovarian follicle reserve after radiation and chemotherap
201 females were assessed for estrous cyclicity, ovarian follicle reserve, oocyte functional competence,
202 one acetate (DMPA) inhibits proliferation of ovarian follicles, resulting in anovulation and a decrea
203 VCD is shown to selectively destroy small ovarian follicles, resulting in early depletion of funct
204 sts have long realized the importance of the ovarian follicle's somatic cells in nurturing oogenesis
205 and isolated cells, we showed in vitro that ovarian follicles secrete factor(s) that suppresses the
206 /UAS transgene programming during Drosophila ovarian follicle stem cell differentiation and used them
207 og (Hh) signaling in Drosophila melanogaster ovarian follicle stem cells (FSCs) induces the activity
209 an unbiased genetic screen using Drosophila ovarian follicle stem cells to probe essential functions
210 ces apoptotic death in cultured cells and in ovarian follicles, suggesting apoptosis as a mechanism o
211 osa cell gene expression required for normal ovarian follicle survival and proliferation in response
212 Interestingly, the rerouted FSH enhanced ovarian follicle survival, caused a dramatic increase in
214 ic dorsal-ventral polarity originates in the ovarian follicle through the restriction of pipe gene ex
215 y low levels of caspase-1 mRNA expression in ovarian follicle tissues plus the inability of IL-1beta
216 e coordination of multiple events within the ovarian follicle to ensure ovulation of a fertilizable e
217 w that a microfluidic system supports murine ovarian follicles to produce the human 28-day menstrual
219 (LH) acts on the somatic cells of vertebrate ovarian follicles to stimulate meiotic resumption in the
220 esponse of LH/CG R-stimulated AC activity of ovarian follicles to the preovulatory surge of LH can be
223 ltihour imaging of both compartments of live ovarian follicles, using mice expressing an improved cAM
224 rease in vitellogenin yolk protein uptake in ovarian follicles were observed by western blots in ODC-
225 pecifically in granulosa cells of developing ovarian follicles where it regulates the late stages of
227 r brn and weak grk or Egfr mutations produce ovarian follicles with multiple sets of nurse cell-oocyt
228 arian inflammation to the growing and mature ovarian follicles, with destruction of the ovarian funct
230 lates the growth and development of multiple ovarian follicles, yielding heterogeneous oocytes with v