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1 via the intracrine activities of SRD5A1 and aromatase.
2 reases in acetyl-HIF-1alpha, HIF-1alpha, and aromatase.
3 uction of acetyl-HIF-1alpha, HIF-1alpha, and aromatase.
4 in the nucleus of the solitary tract express aromatase.
5 cellular identities of neurons that express aromatase.
6 tween the peripheral immune system and brain aromatase.
7 rough differential production via the enzyme aromatase.
8 ic activity of the estrogen-producing enzyme aromatase.
9 from androgens via the action of the enzyme aromatase.
10 of postmenopausal breast tumors overexpress aromatase.
12 mediators responsible for local induction of aromatase, a rate-limiting enzyme in estrogen biosynthes
13 via peripheral endotoxin increases neuronal aromatase; a mechanism that may rapidly generate a poten
15 romatase was measured, as were telencephalic aromatase activity and immunoreactive aromatase (24 hour
17 of adipose tissue (eg, via other adipokines, aromatase activity) could also be involved in changes to
18 R (qRT-PCR) mRNA expression, enzymatic assay aromatase activity, scratch assay cell migration, immuno
19 cts can be mediated via local alterations in aromatase activity, which precisely regulates the tempor
23 isplayed elevated inhibitory potency against aromatase and enhanced affinity for estrogen receptors w
24 (1) lacked the normal elevation of astrocyte aromatase and hippocampal E2 levels; (2) had significant
26 measures to examine the relationship between aromatase and personality traits related to self-regulat
27 emia, reactive astrocytes express the enzyme aromatase and produce 17beta-estradiol (E2), although th
28 time that p53 is a key negative regulator of aromatase and, hence, estrogen production in the breast
31 hat the 5alpha-R type 1 isoform (SRD5A1) and aromatase are expressed in male and female beta-cells.
32 ere we provide evidence that cytochrome P450 aromatase (AROM), the enzyme converting testosterone to
34 e measurement of baseline and post-treatment aromatase availability in primary tumors and metastatic
35 ve measurement of baseline and posttreatment aromatase availability in primary tumors and metastatic
38 and evaluated for their abilities to inhibit aromatase, bind to estrogen receptor alpha (ER-alpha) an
39 xpression levels of the rate-limiting enzyme aromatase, but not estrogen receptors, measured by qPCR
41 owever, the developmental etiology of ER and aromatase cellular expression in female and male striatu
43 NAs targeting an estrogen receptor (ER)- and aromatase-centered network identified 46 genes that are
46 indirectly via the estrogen receptor through aromatase conversion to estradiol, we further examined h
47 sulin resistance while exhibiting suppressed aromatase (Cyp19a1) expression and reduced circulating 1
48 yclin A1 expression was also correlated with aromatase (CYP19A1), a key enzyme that directly regulate
50 s steroid-specific except for genes encoding aromatase (cyp19b), sulfotransferase (sult2st3), and cyp
51 e-nucleotide polymorphism (SNP) rs7175922 in aromatase (cytochrome P450 family 19 subfamily A member
54 ty but also for estradiol production via the aromatase enzyme and estradiol action via the alpha isof
55 by prostaglandin E2 (PGE2) activation of the aromatase enzyme, as we reported previously and confirm
58 differences in the cellular distribution of aromatase (estrogen synthase) in several species suggest
59 w in rats that systemic administration of an aromatase (estrogen synthase) inhibitor after seizure on
60 sted the hypothesis that ERalpha, GPER1, and aromatase exhibits sex, region, and age-specific differe
62 romogenic in situ hybridization we localized aromatase-expressing cells to ependymal regions borderin
64 cytoarchitecture and cellular identities of aromatase-expressing neurons in the auditory and sensori
69 vorozole is a useful technique for measuring aromatase expression in individual breast lesions, enabl
70 vorozole is a useful technique for measuring aromatase expression in individual breast lesions, enabl
73 nsity and distribution of astrocytes, normal aromatase expression in neurons, and normal cognitive fu
74 timize PET with (11)C-vorozole for measuring aromatase expression in postmenopausal breast cancer in
75 aphy (PET) with (11)C-vorozole for measuring aromatase expression in postmenopausal breast cancer.
79 etween HIF-1alpha and p300, a coactivator of aromatase expression, and suppressed p300 binding to the
81 ctivated glucocorticoid receptor, decreasing aromatase expression, induces Leydig tumor regression bo
87 ated glucocorticoid receptor to regulate the aromatase gene transcriptional activity through the recr
89 are synthesized from androgens by the enzyme aromatase, highly expressed in the ovaries of reproducti
90 e and female zebra finches, a combination of aromatase immunohistochemistry and conventional tract tr
93 levels of acetyl-HIF-1alpha, HIF-1alpha, and aromatase in breast tissue of obese compared with lean w
97 decreased Th1 and Th17 differentiation in an aromatase-independent fashion, but also exacerbated cell
100 uption via exogenous chemicals requires that aromatase inhibition be considered in addition to androg
101 urons in rodent BLA responded differently to aromatase inhibition both in vivo and in vitro, our find
103 itutitary-gonadal axis in female FHMs, where aromatase inhibition decreases the conversion of testost
105 cability for a previously described qAOP for aromatase inhibition leading to decreased fecundity deve
111 ictive for progression-free survival time to aromatase inhibitor (AI) therapy in advanced breast canc
113 ESR1 have been associated with resistance to aromatase inhibitor (AI) therapy in patients with ER+ me
114 tive study assessed the impact of 2 years of aromatase inhibitor (AI) therapy on the incidence of ova
115 m endocrine therapy but later progression on aromatase inhibitor (AI) therapy were given vorinostat (
118 nformation exists on the long-term effect of aromatase inhibitor (AI) use on CVD risk in breast cance
119 pendent kinase 4/6 (CDK4/6) inhibitor and an aromatase inhibitor (AI), given US Food and Drug Adminis
120 The long-range goal has been to create dual aromatase inhibitor (AI)/selective estrogen receptor mod
121 are lean or obese influence response to the aromatase inhibitor (anastrazole), we incorporated patie
122 tagonist (fulvestrant); TES supplementation; aromatase inhibitor (anastrozole); and TES plus anastroz
123 s during which progression occurred included aromatase inhibitor (n = 36), fulvestrant (n = 21), and
126 versus C-7 allyl derivatives led to the best aromatase inhibitor 13 of this work with IC(50) of 0.055
127 positron emission tomography (PET) with the aromatase inhibitor [(11)C]vorozole in a sample of 43 ad
128 variables among three patient groups (no ET, aromatase inhibitor [AI], or tamoxifen) were compared by
129 f CDKI or placebo with endocrine therapy (an aromatase inhibitor [letrozole or anastrazole] or fulves
130 tablished that a strategy of switching to an aromatase inhibitor after 2 to 3 years of tamoxifen can
131 inhibited by the ER antagonist tamoxifen and aromatase inhibitor anastrazole and were increased by th
132 d from obese women reduce sensitivity to the aromatase inhibitor anastrazole in an organotypic breast
135 ho had been randomly assigned to receive the aromatase inhibitor anastrozole plus the selective estro
136 n tissue samples, whereas when combined with aromatase inhibitor anastrozole significantly increased
137 lthough s.c. treatment with testosterone and aromatase inhibitor applied beginning on the day of immu
138 lets, exposure to 5alpha-R inhibitors or the aromatase inhibitor both inhibited T enhancement of GSIS
139 docrine therapy, or who were treated with an aromatase inhibitor but who had received previous chemot
141 ased on experiments with FHMs exposed to the aromatase inhibitor fadrozole, we also show how a toxic
144 14.9 months (14.0-16.7) in the placebo plus aromatase inhibitor group (difference 13.1 months; range
145 n progression-free survival in the CDKI plus aromatase inhibitor group was 28.0 months (95% CI 25.3-2
146 d adjuvant therapy with tamoxifen or with an aromatase inhibitor improved disease-free survival and i
148 breast cancer resistant to treatment with an aromatase inhibitor in the adjuvant or metastatic settin
150 om 17 922 initiated treatment with either an aromatase inhibitor or tamoxifen (8139 and 9783, respect
151 ree after about 5 years of treatment with an aromatase inhibitor or tamoxifen followed by an aromatas
152 he pooled analysis, of whom 1320 received an aromatase inhibitor plus a CDKI, 932 received placebo pl
155 nce of PIK3CA mutation, primary or secondary aromatase inhibitor resistance, and measurable or non-me
156 non-measurable disease, primary or secondary aromatase inhibitor resistance, PIK3CA status, and PTEN
160 The extension of treatment with an adjuvant aromatase inhibitor to 10 years resulted in significantl
161 cer whose disease had progressed on or after aromatase inhibitor treatment and had received up to one
162 n part 2, we stratified patients by previous aromatase inhibitor treatment for advanced or metastatic
163 e or relapse during or within 6 months of an aromatase inhibitor treatment in the adjuvant setting an
166 rding Hologic device for DXA scans, previous aromatase inhibitor use, and baseline bone mineral densi
167 cancer who had relapsed or progressed on an aromatase inhibitor were recruited from 19 hospitals in
169 or plus a CDKI, 932 received placebo plus an aromatase inhibitor, 1296 received fulvestrant plus a CD
170 ine therapy compared with a third-generation aromatase inhibitor, a standard of care for first-line t
171 ver, pretreatment with fadrozole, a specific aromatase inhibitor, did not block norepinephrine's neur
174 Birds were injected with fadrozole, a potent aromatase inhibitor, or vehicle within 2-5 minutes after
175 matase inhibitor or tamoxifen followed by an aromatase inhibitor, were randomly assigned (1:1) to rec
176 roves disease-free survival after 5 years of aromatase inhibitor-based therapy in women with postmeno
179 d progression-free survival in patients with aromatase inhibitor-resistant advanced breast cancer.
186 otherapy, the interval from the last dose of aromatase-inhibitor therapy, and the duration of treatme
191 domain undergoes epigenetic reprogramming in aromatase inhibitors (AI)-resistant cells, leading to Ke
196 omise quality of life.SIGNIFICANCE STATEMENT Aromatase inhibitors (AIs) are used as an adjuvant thera
198 gen receptor-positive (ER+) breast cancer to aromatase inhibitors (AIs) but have been limited to smal
202 mergent symptoms with adjuvant tamoxifen and aromatase inhibitors (AIs) have been associated with sup
207 positive breast cancers initially respond to aromatase inhibitors (AIs), but eventually acquire resis
209 he initial 5 years of follow-up after use of aromatase inhibitors (MAP.3 and International Breast Can
211 RR, 0.44 [95% CI, 0.24-0.80]; 2 trials), and aromatase inhibitors (RR, 0.45 [95% CI, 0.26-0.70]; 2 tr
214 en and raloxifene and adequate evidence that aromatase inhibitors are associated with small to modera
221 h selective estrogen receptor modulators and aromatase inhibitors are widely used for the treatment o
223 0.24-0.80]; 2 trials [n = 17 806]), and the aromatase inhibitors exemestane and anastrozole (RR, 0.4
224 e CDK4/6 inhibitor palbociclib combined with aromatase inhibitors for the treatment of estrogen recep
225 nation chemotherapy, NET as monotherapy with aromatase inhibitors had a similar clinical response rat
226 he optimal duration of extended therapy with aromatase inhibitors in patients with postmenopausal bre
228 to endocrine therapies such as tamoxifen and aromatase inhibitors is a significant clinical problem.
229 n deprivation (LTED) with tamoxifen (TAM) or aromatase inhibitors leads to endocrine-resistance, wher
230 res and suggest that acute administration of aromatase inhibitors may be an effective treatment for S
231 e of potential effects of random mixtures of aromatase inhibitors on the dynamics of women's menstrua
232 ified by type of previous endocrine therapy (aromatase inhibitors only vs selective oestrogen recepto
233 east cancer initiating hormonal therapy with aromatase inhibitors or tamoxifen between April 1, 1998,
234 isk of cardiovascular events associated with aromatase inhibitors should be balanced with their favor
235 estrogen receptor modulator tamoxifen and to aromatase inhibitors that lower circulating estradiol oc
236 enefits of taking tamoxifen, raloxifene, and aromatase inhibitors to reduce risk for breast cancer ar
238 AR, 24.1); however, initiating therapy with aromatase inhibitors was not associated with VTE (HR, 0.
243 itive breast cancer receiving treatment with aromatase inhibitors were randomly assigned in a 1:1 rat
244 os (HRs) with 95% CIs comparing new users of aromatase inhibitors with new users of tamoxifen for eac
245 which occur in 25-30% of people treated with aromatase inhibitors(1)(-4), knowledge about clinical re
246 ucing medications (tamoxifen, raloxifene, or aromatase inhibitors) provide at least a moderate benefi
248 evels reported in postmenopausal patients on aromatase inhibitors, but at each time point, at least 1
249 dications, such as tamoxifen, raloxifene, or aromatase inhibitors, in women who are not at increased
250 ove 10% inhibition of estradiol synthesis by aromatase inhibitors, noticeable (eventually reversible)
252 dications, such as tamoxifen, raloxifene, or aromatase inhibitors, to women who are at increased risk
253 s and of the side effects of cytochrome P450 aromatase inhibitors, which are frequently used for brea
261 f the 17beta-estradiol (E2) synthesis enzyme aromatase is highly upregulated in astrocytes following
263 illary acidic protein (GFAP) promoter-driven aromatase knock-out (GFAP-ARO-KO) mouse model to deplete
264 illary acidic protein (GFAP) promoter-driven aromatase knock-out (GFAP-ARO-KO) mouse to deplete astro
265 Here, we used a forebrain neuron-specific aromatase KO (FBN-ARO-KO) mouse model to deplete neuron-
266 emales that are close to spawning had higher aromatase levels in all brain regions compared to female
267 and cytokines had returned to baseline, but aromatase mRNA and activity were elevated in both sexes.
271 from human cortex by identifying a subset of aromatase neurons as putative inhibitory interneurons.
274 man SynT differentiation, including hCYP19A1/aromatase P450, glial cells missing 1 (GCM1), frizzled 5
276 n the basal hypothalamus: an oblique band of aromatase-positive (AR+) neurons, and ventromedial to th
280 the publication of the crystal structure of aromatase purified from human placenta, revealing an and
282 steroidogenic enzyme [cytochrome P450(CYP19) aromatase] required for estrogen synthesis in vertebrate
284 h) tumor cells expressing elevated levels of aromatase stimulated tumor/host estrogen production and
286 oups, with mean SUV in tumors overexpressing aromatase (SUVR>1.1) ranging from 2.47 to 13.6, while tu
288 ge between inhibition of cytochrome P450 19A aromatase (the MIE) and population-level decreases in th
289 estrogen, here we examined the expression of aromatase, the enzyme that catalyzes the conversion of t
293 ns are derived from androgens via the enzyme aromatase), they subserve markedly different functions v
294 cimens from the same tumors were stained for aromatase using immunohistochemistry and evaluated for s
296 The central transcription of cytokines and aromatase was measured, as were telencephalic aromatase
297 ockout mouse models for estrogen receptor or aromatase, we observed that perturbation in estrogen tra
298 and antagonists following blockade of brain aromatase, we show here that brain-derived estrogens acu
299 ATPase activity, Aha1, HIF-1alpha, PKM2, and aromatase were increased in the mammary glands of p53 nu
300 tic plasticity in the BLA involving neuronal aromatase, which produces the neurosteroid 17beta-estrad