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1 investigated whether ethanol hypotension is estrogen dependent.
2 timal proliferation after vascular injury is estrogen dependent.
3 Copulation in continuers appears estrogen dependent.
4 s, even in cell lines where PR expression is estrogen dependent.
5 invasive mammary tumor formation is strictly estrogen dependent.
6 at in vivo T cell trafficking is gender- and estrogen-dependent.
7 was discontinued, indicating that they were estrogen-dependent.
8 R) action by blocking the interactions of an estrogen-dependent activation function (AF-2) with p160
9 independent activation function 1 (AF-1) and estrogen-dependent activation function 2 (AF-2) of ERalp
12 -beta; it also transduces membrane-initiated estrogen-dependent activation of the mitogen-activated p
13 lement within this enhancer region abolishes estrogen-dependent activity, and chromosome conformation
17 The cancer and metastatic lung nodules are estrogen dependent and retain estrogen receptor alpha (E
18 ER-positive breast cancer cells, it promotes estrogen-dependent and -independent ER transcriptional a
21 addition, COBRA1 was shown to regulate both estrogen-dependent and -independent transcription of the
22 er, has been shown previously to affect both estrogen-dependent and calcium/calmodulin-dependent path
23 ert its oncogenicity through tissue-specific estrogen-dependent and estrogen-independent functions.
24 n and induction of apoptosis are obtained in estrogen-dependent and estrogen-independent human breast
25 ow demonstrate that hER-alpha36 inhibits the estrogen-dependent and estrogen-independent transactivat
26 acts as a dominant-negative effector of both estrogen-dependent and estrogen-independent transactivat
27 sured levels and mRNA expression of EGFRs in estrogen-dependent and independent MXT mouse mammary can
29 ess, transformation by a v-Myb-ER fusion was estrogen dependent, and upon withdrawal of the hormone,
30 on of progesterone receptor (PR) is normally estrogen-dependent, and progesterone is only active in t
32 eneralized CNS arousal can foster a specific estrogen-dependent, aroused behavior, sexual behavior.
33 Interestingly, COBRA1 does not affect the estrogen-dependent assembly of transcription regulatory
34 his facilitation bears on CNS mechanisms for estrogen-dependent behaviors, ovariectomized rats were s
37 ht isolated flavonoids were screened against estrogen-dependent breast cancer cell lines besides norm
38 n mediating anti-estrogenic effects of RA in estrogen-dependent breast cancer cells and suggest that
39 rations of genistein stimulate the growth of estrogen-dependent breast cancer cells in vivo in a dose
46 ed uterine estrogen responses, and inhibited estrogen-dependent breast cancer growth in vitro and in
47 e found that tamoxifen, a drug used to treat estrogen-dependent breast cancer, caused remarkable impr
48 xifen, the major adjuvant drug treatment for estrogen-dependent breast cancer, has been shown previou
57 and mechanisms underlying the progression of estrogen-dependent breast cancers to estrogen-independen
58 ffective for the prevention and treatment of estrogen-dependent breast cancers, but is associated wit
59 ave been developed to treat individuals with estrogen-dependent breast cancers, some tumors show de n
63 ne kinase 1 (SK1) plays an important role in estrogen-dependent breast tumorigenesis, but its regulat
67 the majority of breast cancers and promotes estrogen-dependent cancer progression by regulating the
70 OHE1-16alphaOHE1 ratio, on the prevention of estrogen-dependent cancers remains to be determined.
73 here was no evidence for selection in highly estrogen-dependent candidate genes, including those for
75 otency relative to raloxifene in an in vitro estrogen dependent cell proliferation assay (IC50 = 0.05
76 logues were synthesized and shown to inhibit estrogen-dependent cell growth in a mouse uterine growth
78 to an ER-responsive promoter and its role in estrogen-dependent cell proliferation and malignant phen
79 In conclusion, SUSD3 is a novel promoter of estrogen-dependent cell proliferation and regulator of c
82 ns of genistein will stimulate the growth of estrogen-dependent cells in vivo in a dose-dependent man
86 n any brain region examined, suggesting that estrogen-dependent changes in behavior are mediated by d
89 pon reduction of endogenous AIB1 expression, estrogen-dependent colony formation in soft agar and tum
90 we identify the product of human MTA3 as an estrogen-dependent component of the Mi-2/NuRD transcript
91 s issue of Cell, demonstrate that MTA3 is an estrogen-dependent component of the NuRD complex and ide
93 the putative roles of KP(LS) neurons in the estrogen-dependent control of GnRH neurons and/or variou
94 ate the molecular mechanisms involved in the estrogen-dependent control of plasminogen activator inhi
95 eceptor function alone is not sufficient for estrogen-dependent cyclin D1 expression and proliferatio
98 has been recently correlated with a lack of estrogen-dependent cyclin D1 expression in cells enginee
99 estigated the mechanisms responsible for the estrogen-dependent, cytochrome P450 (CYP)-mediated dilat
100 d tamoxifen inhibited the differentiation of estrogen-dependent DC from bone marrow precursors ex viv
101 ar level, DUSP3 deletion was associated with estrogen-dependent decreased phosphorylation of ERK1/2 a
102 an alternate mechanism that could impact on estrogen-dependent developmental and pathological system
105 ations among exposure to these compounds and estrogen-dependent diseases (such as endometriosis) have
106 A promising approach for the treatment of estrogen-dependent diseases is the reduction of intracel
107 are attractive targets for the treatment of estrogen-dependent diseases like endometriosis and breas
109 -HSD1 is a novel target for the treatment of estrogen-dependent diseases, as it catalyzes intracellul
110 rovides an opportunity for future studies in estrogen-dependent diseases, such as endometriosis.
113 ogen hypersensitivity and the development of estrogen-dependent ductal carcinoma in situ lesions.
114 ) mice developed endometrial hyperplasia and estrogen-dependent endometrial cancer, exhibiting increa
116 ER-negative line of melanoma lineage and the estrogen-dependent, ER-positive MCF-7 line, this study p
119 ted estrogen receptor 1 and was required for estrogen-dependent expression of genes that encode antio
120 oding the catabolic enzyme CYP7B1) decreased estrogen-dependent expression of vascular nitric oxide s
124 rogenitors using retroviral expression of an estrogen-dependent fusion protein of the HoxB8 transcrip
125 has been strongly connected to androgen and estrogen dependent gene expression, it serves as a promi
126 lpha and ERK2 and enables ERK2 modulation of estrogen-dependent gene expression and proliferation pro
127 ic estrogen 17alpha-ethynylestradiol (EE) on estrogen-dependent gene expression and receptor binding
129 n a neural circuit that controls aggression, estrogen-dependent gene expression is increased in long
133 ct ERE binding is required for most of (75%) estrogen-dependent gene regulation and 90% of hormone-de
134 a new MED1-interacting protein required for estrogen-dependent gene transcription and breast cancer
136 ERalpha levels controls the transcription of estrogen-dependent genes linked to breast cancer cell pr
137 e ER binding may be a required factor of the estrogen dependent growth response in MCF-7 cells, parti
138 iphering the cellular events associated with estrogen-dependent growth and the subsequent outgrowth o
142 the effects of Raf-1 kinase activity on the estrogen-dependent growth of human breast cancer cells,
143 ve human breast tumor cells and required for estrogen-dependent growth of MCF7 tumor xenografts.
144 ith up-regulated DLC1 were hypersensitive to estrogen-dependent growth stimulation and that DLC1 had
148 isoflavone, genistein, stimulates growth of estrogen-dependent human breast cancer (MCF-7) cells in
149 that genistein enhanced the proliferation of estrogen-dependent human breast cancer (MCF-7) cells in
150 profiled the expression of 800 miRNAs in the estrogen-dependent human breast cancer cell line MCF7 an
151 er cells (MDA-MB-231); and (b) the growth of estrogen-dependent human breast cancer cells (MCF-7).
154 Evidence has been accumulating that some estrogen-dependent human breast cancers require estrogen
155 xifen cooperate to inhibit the growth of the estrogen-dependent human MCF-7 breast cancer cell line m
156 These findings suggest a link between the estrogen-dependent hypotensive effect of chronically adm
161 tromedial nucleus of the hypothalamus (VMH), estrogen-dependent induction of oxytocin receptors requi
167 ment is nonresponsive to ER-beta but confers estrogen-dependent inhibition of transcription with ER-a
168 of MCF-7 cells to estrogen, stabilizing the estrogen-dependent interaction between p300 and ERalpha.
170 in-coupled receptor superfamily and mediates estrogen-dependent kinase activation as well as transcri
173 mimetic that may promote the development of estrogen-dependent malignancies, such as breast cancer.
174 nique among human Ads by causing exclusively estrogen-dependent mammary tumors in experimental animal
175 roup D human adenovirus type 9 (Ad9) induces estrogen-dependent mammary tumors in female rats and req
176 e 9 (Ad9) is unique in eliciting exclusively estrogen-dependent mammary tumors in rats and in not req
177 adenovirus type 9 (Ad9) elicits exclusively estrogen-dependent mammary tumors in rats, and an essent
178 novirus type 9 (Ad9), which uniquely elicits estrogen-dependent mammary tumors in rats, is encoded by
179 omal TGF-alpha promoter in MCF-7 cells in an estrogen-dependent manner but not to the pS2 promoter.
181 REL-dependent transactivation in trans in an estrogen-dependent manner, and ERalpha can interact with
182 en receptor-alpha (ERalpha) and ERbeta in an estrogen-dependent manner, but it affected transcription
183 imera (v-RelER) which transforms cells in an estrogen-dependent manner, we constructed subtraction cD
186 ainst an estrogen independent MDA-MB-435 and estrogen dependent MCF-7 breast cancer cell lines and on
187 ncer, regulate the level of IRS-1 protein in estrogen-dependent MCF-7 and ZR75 breast cancer cells.
188 vascular endothelial growth factor (VEGF) by estrogen-dependent MCF-7 breast cancer cells could aboli
189 In ERalpha+/progesterone receptor-positive, estrogen-dependent MCF-7 breast cancer cells, we stably
191 12310A attained tumor regression in the ER+, estrogen-dependent MCF-7 breast cancer xenograft model w
192 t and metabolite compounds did not stimulate estrogen-dependent MCF-7 cell proliferation above solven
194 d antagonist effects on the proliferation of estrogen-dependent MCF-7 cells in a dose-dependent manne
195 ed as an antiestrogen and potently inhibited estrogen-dependent MCF-7 proliferation with IC(50) value
196 was observed as low as 0.5 mg/kg dose in the estrogen-dependent MCF-7 xenograft model, where this eff
198 ogen-independent (MDA-MB-231 and BT 549) and estrogen-dependent (MCF-7 and ZR-75-1) human breast canc
200 identified 46 genes that are dispensable in estrogen-dependent MCF7 cells, but are selectively requi
202 eased PAI-1 promoter activity in BAECs by an estrogen-dependent mechanism, whereas ERbeta suppressed
205 an unexpected divergence in androgen- versus estrogen-dependent mechanisms in, respectively, type II
206 n dendritic morphology are driven in part by estrogen-dependent mechanisms, as evidenced by decreased
208 erexpression may represent one way to confer estrogen-dependent mitogenic stimulation to breast cance
218 dogenous CTMP decreased the proliferation of estrogen-dependent or estrogen-independent breast cancer
219 lative roles each plays in the sex-specific, estrogen-dependent organization of gonadotropin signalin
220 that MTA3 constitutes a key component of an estrogen-dependent pathway regulating growth and differe
221 e facilitate establishment of therapy-naive, estrogen-dependent PDX tumors that progress to lethal me
223 ol replacement revealed a critical window of estrogen-dependent plasticity between 3 and 6 wk, which
225 more, resveratrol inhibited the formation of estrogen-dependent preneoplastic ductal lesions induced
226 llular and physiological actions of GPR30 in estrogen-dependent processes and discuss the relationshi
228 -mediated and the non-transcription-mediated estrogen-dependent production of nitric oxide by vascula
232 terminal differentiation, and inhibition of estrogen-dependent proliferation in breast cancer cells.
233 gen-responsive target gene promoters and for estrogen-dependent proliferation of breast cancer cells.
234 knockdown to show that Ada3 is critical for estrogen-dependent proliferation of ER-positive breast c
235 liferation of mouse embryonic fibroblasts or estrogen-dependent proliferation of mammary carcinoma MC
237 g a well characterized cell culture model of estrogen-dependent proliferation of MCF7 human breast ca
238 stigate the role of cyclin D1, a mediator of estrogen-dependent proliferation, in growth of tamoxifen
240 bit increased invasion without affecting the estrogen-dependent proliferative response, which suggest
244 n breast cancer cells reduces the endogenous estrogen-dependent recruitment of p300 to the promoters
247 ggesting that the VMH may play a role in the estrogen-dependent regulation of aggression in this spec
249 ) neurons play well-established roles in the estrogen-dependent regulation of reproduction, little is
251 pression of RIP140 dose dependently inhibits estrogen-dependent reporter activity in human breast can
252 The habenular complex is involved in several estrogen-dependent reproductive behaviors in female rats
255 f estrogen-independent but apparently not to estrogen-dependent rodent mammary and human breast carci
257 , and perhaps hER-alpha36 also may transduce estrogen-dependent signaling in other estrogen target ti
260 wnregulation enhances cell proliferation and estrogen-dependent SK1 activity, mediated by a reduction
262 o measured in female 129S6/SvEv mice bearing estrogen-dependent SSM3 mouse mammary tumors, male athym
268 st cancer is the conversion of cells from an estrogen-dependent to an estrogen-independent state.
269 tion of the phenotype of breast cancers from estrogen-dependent to estrogen-independent growth often
270 is female-specific system is now known to be estrogen-dependent, to be ontogenetically organized, and
271 mutation made at SFRE significantly reduced estrogen-dependent transcription from the lactoferrin ER
272 gion abolish C1 complex formation and reduce estrogen-dependent transcription from the lactoferrin ER
273 HSF1 complexes participate in repression of estrogen-dependent transcription in breast carcinoma cel
274 that selective dose-dependent antagonism of estrogen-dependent transcription may be possible in targ
276 -response elements of genes, and it enhances estrogen-dependent transcription more effectively than A
277 PBP in CV-1 cells resulted in enhancement of estrogen-dependent transcription, indicating that PBP se
280 lanines (L543A, L544A) in helix 12 minimized estrogen-dependent transcriptional activation and revers
281 Despite this, Hsp90 is critical for the estrogen-dependent transcriptional activity of the ERbet
282 possibility that wild-type BRCA1 suppresses estrogen-dependent transcriptional pathways related to m
283 ediated by the nuclear estrogen receptor, as estrogen-dependent transcriptional repression was inhibi
285 Nod1 in MCF-7 cells results in inhibition of estrogen-dependent tumor growth and reduction of estroge
286 rom soy protein will have similar effects on estrogen-dependent tumor growth as pure genistein has no
287 ining varying amounts of genistein increased estrogen-dependent tumor growth in a dose-dependent mann
288 dent MCF-7 breast cancer cells could abolish estrogen-dependent tumor growth in ovariectomized mice.
291 MCF-7IL-1 alpha cells formed rapidly growing estrogen-dependent tumors compared to parental cells.
295 ometrial cancers have long been divided into estrogen-dependent type I and the less common clinically
296 ssical ER signaling in vivo by comparing the estrogen-dependent uterine response in mice that express
297 rdiovascular tissue and the role of SRC-3 in estrogen-dependent vasoprotection from vascular injury.
298 sponse element and that TCL1A expression was estrogen dependent, was associated with the variant SNP
299 me (2-96 h) in MCF-7 cell variants that were estrogen-dependent (WS8) or resistant to estrogen depriv
300 antly, when these cells were used to produce estrogen-dependent xenograft tumors in SCID mice, we als