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1 f forkhead family of transcription factor 3 (FoxO3).
2 action depended on the transcription factor Foxo3.
3 tor and is mediated through up-regulation of FOXO3.
4 ed phosphorylation of muscle STAT3, p38, and FOXO3.
5 und that E2F1 forms a complex with FOXO1 and FOXO3.
6 nin KD hepatocytes that failed to inactivate FoxO3.
7 lion neurons, both of which normally express Foxo3.
8 y were similarly repressed in the absence of FoxO3.
9 accompanied by increased phosphorylation of FOXO3.
10 by concomitant loss of transcription factor Foxo3.
11 the apteronotid homologs of FoxP2, Otx1, and FoxO3.
12 neering them to express an activated form of FOXO3.
13 tified the Irf7 gene as a critical target of FOXO3.
14 ncomitant down-regulation of p21, Foxo1, and Foxo3.
15 it Skp2 binds preferentially to deacetylated FOXO3.
16 s the stress-responsive transcription factor FoxO3.
17 direct downstream transcriptional target of FOXO3.
18 oncert to regulate the apoptotic function of FOXO3.
19 ed astrocyte differentiation and up-regulate FOXO3.
23 THP-1 monocytes induced a rapid increase of FOXO3 acetylation, partly by suppression of SIRT1 and SI
25 tiation into a range of vascular cell types. FOXO3-activated vascular cells exhibited delayed aging a
26 Taken together, our findings indicate that FoxO3 activation can both induce and maintain autophagic
27 , in kidneys with persistent UUO for 7 days, FoxO3 activation increases the abundance of mRNA and pro
28 diated vascular protection and indicate that FOXO3 activation may provide a means for generating more
29 everaging GWAS data, Lee et al. now identify FOXO3 activity as predictive of disease severity in Croh
33 context, the Forkhead transcription factor, Foxo3, amplified GATA-1-mediated transcriptional activat
34 shown by the translocation of phosphorylated FoxO3 (an inactive form) from nucleus to cytoplasm and t
35 n the regulation of the transcription factor FOXO3, an important regulator of Mn-superoxide dismutase
36 cancer cells led to a PI3K-dependent loss of FOXO3 and a decrease in the negative regulator of lipid
37 miR-182 reduces the expression of Bcat2, Foxo3 and Adcy6 to regulate the hypertrophic response in
39 through STAT3 and p38 for the activation of FOXO3 and atrogin, but does not directly regulate the su
41 ession of Skp2 caused poly-ubiquitination of FOXO3 and degradation, whereas knockdown of Skp2 increas
43 MP) mice, TADCs expressed elevated levels of FOXO3 and Foxo3, respectively, which correlated with exp
44 te block of differentiation, indicating that Foxo3 and Foxo4, although dispensable for male fertility
49 phagy in VCP-IBM muscle, we examined the AKT/FOXO3 and mammalian target of rapamycin (mTOR) pathways.
50 nteract with the DNA-binding domain (DBD) of FOXO3 and modulate the FOXO3 transcriptional program in
52 udy demonstrates a novel mechanism involving FOXO3 and NF-kappaB RelA that controls myeloid cell sign
53 FoxO3 is a p53 target gene, and suggest that FoxO3 and p53 are part of a regulatory transcriptional n
54 former phenomenon is related to DCA-induced Foxo3 and p53 expression, resulting in the overexpressio
55 there is also a positive correlation between FOXO3 and PERK expression at the protein and RNA levels
56 nd, we exploit this adaptive response of low FOXO3 and PERK expression, and high PERK activity in dru
57 Blood, Karube and colleagues have identified FOXO3 and PRDM1 (Blimp1) as tumor suppressor genes with
60 dent activation of the transcription factors FOXO3 and TFEB, which enhanced lipid catabolism and Mtb
61 sive for generation of the apoptotic form of FOXO3 and the activity of SIRT1 and particularly SIRT7 r
62 se results suggest an essential link between FOXO3 and the ATM-Chk2-p53-mediated apoptotic programme
63 d lower SIRT1 and SIRT7 and readily formed p-FOXO3 and underwent apoptosis when similarly treated.
64 e different nuclear and cytosolic species of FOXO3 and used antiphosphoserine, acetyl-lysine, methyla
65 repressed the expression of forkhead box O3 (FOXO3), and FOXO3 negatively regulated pathogenic T(h)17
67 Combined muscle-specific deletion of FoxO1, FoxO3, and FoxO4 in MIGIRKO mice reversed increased auto
69 the circumstance, FOXO (Forkhead O) (FOXO1, FOXO3, and FOXO4) transcription factors activate the exp
71 al regulators (forkhead box [FOX] F2, FOXO1, FOXO3, and hypoxia inducible factor [HIF]-1alpha) were m
74 ctivation and phosphorylation levels of Akt, FoxO3, and ribosomal protein S6 were determined by Weste
77 ll) and foxo whose orthologues NR2E1/TLX and FOXO3 are transcription factors implicated in human neur
78 eserve in mice, thus emphasizing the role of Foxo3 as a guardian of the ovarian follicle pool in mamm
80 and have identified the transcription factor FOXO3 as a negative regulator of the magnitude and effec
81 ived from lacritin-stimulated acetylation of FOXO3 as a novel ligand for ATG101 and coupling of stres
82 ypoxic tumor microenvironment and identifies FOXO3 as an important target of m(6) A modification in t
84 ultiple changes including phosphorylation of FOXO3 at S-574, a novel c-Jun N-terminal kinase (JNK) si
85 azadC) induced rapid nuclear accumulation of FOXO3, ATM-dependent CREB phosphorylation, and caspase-8
86 This indicates that 5-azadC activates the FOXO3-ATM-CREB signaling pathway, which contributes to c
88 xercise-induced nuclear transcription factor FOXO3 binds to the CHCHD4 promoter and represses its exp
89 The synergistic increase in nuclear p53 and FOXO3 by exercise can facilitate their known interaction
92 ata support the notion that deacetylation of FOXO3 by SIRT1 or SIRT2 facilitates Skp2-mediated FOXO3
93 that overexpression of constitutively active FOXO3 can increase ovarian reproductive capacity in mice
94 ding, we show that ectopic overexpression of FOXO3 can reduce the sensitivity of the resistant cells
95 but not either condition alone, inactivates FOXO3, causing a decrease in expression of its target ge
97 Interestingly, autophagic cells deficient in FoxO3 contain lower numbers of autophagic vesicles per c
100 ode of interaction between compounds and the FOXO3-DBD was assessed via NMR spectroscopy and docking
101 of lysine residues, we investigated whether FOXO3 deacetylation by SIRT1 or SIRT2 facilitates FOXO3
103 tylate the FOXO3 transcription factor, since Foxo3 deficiency diminished the protective effect of SRT
104 easing the cell cycle inhibitor p27kip1, and Foxo3 deficiency in mice results in marked colonic epith
105 lentiviral-based overexpression of Eomes in Foxo3-deficient CD4(+) T cells restored both IFN-gamma a
108 tosol, impacting both proteins by preventing FOXO3 degradation and preventing NF-kappaB RelA nuclear
109 nhibitor treatment prevented sirtuin-induced FOXO3 degradation, indicating that this process is prote
110 stically, we found that AMPKalpha1 regulates FoxO3-dependent expression of both LC3 and ULK1, which a
112 histological techniques, we demonstrate that Foxo3-dependent hearing loss is not due to a loss of coc
113 e cancer cells into non-cancerous cells in a FOXO3-dependent manner, and may allow patients to overco
120 long been evidence that acetylation promotes FOXO3-driven apoptosis and recently a specific JNK (c-Ju
121 sis in distinct diseases that operates via a FOXO3-driven pathway modulating inflammatory responses.
122 it inflammatory responses in monocytes via a FOXO3-driven pathway, which through TGFbeta1 reduces pro
125 f Foxo3 in mice that deletes the full-length Foxo3 except isoform2, a close ortholog of the human FOX
132 ion levels of three key proteins (Akt, FOXO1/FOXO3 [FOXO1/3], and mammalian target of rapamycin [mTOR
133 xpression of the repressor foxo3, to prevent Foxo3 from binding to and repressing the vegfa promoter.
136 inase)-dependent S574 phosphorylated form (p-FOXO3) has been shown to be specifically apoptotic.
137 w that mice lacking the transcription factor Foxo3 have adult onset hearing loss with the hallmark ch
138 rminal truncated mutation of the full-length FOXO3 However, the biological function of FOXO3 isoform2
144 identified Eomes as a direct target gene for Foxo3 in CD4(+) T cells and we have shown that lentivira
145 ole for the canonical damage response factor Foxo3 in contributing to the maintenance of auditory syn
146 wed the presence of the HCV-specific form of FOXO3 in HCV-infected livers but not in normal liver or
148 tudy, we established a conditional allele of Foxo3 in mice that deletes the full-length Foxo3 except
151 polycomb targets, including the promoter of Foxo3 In patient-derived GBM stem cells, CRISPR/Cas9 del
156 7 (SIRT1 and SIRT7) are able to deacetylate FOXO3 in vitro and in vivo, and that lipopolysaccharide
157 onsive transcription factor forkhead box O3 (FoxO3) in mediating injury-induced proximal tubular auto
158 idence for posttranslational modification of FoxO3, including early (6 hours) deacetylation and depho
159 Furthermore, shRNA-mediated deletion of FoxO3 increased hepatocyte resistance to oxidative stres
160 ibroblasts, whereas knockout or knockdown of FoxO3 increased the reprogramming efficiency of adult-de
161 n SIRT1, we detected increased expression of FOXO3, indicating SIRT1 regulates FOXO3 protein levels i
167 sine residues (K242, K259, K290 and K569) of FOXO3 into arginines to mimic deacetylated FOXO3 resulte
168 iption and we have further demonstrated that FOXO3, IRF7 and IFN-I form a coherent feed-forward regul
177 ic transcription factor and tumor suppressor FOXO3 is an important mediator of apoptosis, but the mec
185 frequently inactivated in human cancers, and FOXO3 is the second most replicated gene associated with
186 eover, Forkhead box O3 transcription factor (FoxO3) is further found to be required for GAA-mediated
187 he forkhead family of transcription factors, FOXO3, is a negative regulator of a subset of antiviral
191 edge, the first known biological function of Foxo3 isoform2 that acts as a novel osteoclastic inhibit
196 how that synaptic localization is altered in Foxo3-KO mice and Myo7a immunoreactivity is reduced.
197 OXO3 preferentially bound JNK1, and a mutant FOXO3 lacking four known acetylation sites (K242, 259, 2
198 , therefore, hypothesized that deficiency of FoxO3 leads to increased susceptibility to CS-induced lu
202 l samples furthermore showed that METTL3 and FOXO3 levels are tightly correlated in HCC patients.
210 -1, Atg9A, Atg4B, and Bnip3, suggesting that FoxO3 may function to maintain components of the autopha
212 from nucleus to cytoplasm and the release of FoxO3-mediated cell cycle arrest, thus leading to increa
213 us, SIRT1 protects against emphysema through FOXO3-mediated reduction of cellular senescence, indepen
214 r findings provide mechanistic insights into FOXO3-mediated vascular protection and indicate that FOX
216 t of METTL3, with m(6) A modification of the FOXO3 mRNA 3'-untranslated region increasing its stabili
217 by abolishing the identified METTL3-mediated FOXO3 mRNA stabilization, and overexpression of FOXO3 re
219 amage accrued as a result of elevated ROS in Foxo3(-/-) mutant HSPC is at least partially reversible.
220 e expression of forkhead box O3 (FOXO3), and FOXO3 negatively regulated pathogenic T(h)17 cell respon
221 the foundation for future studies to use the FOXO3-NF-kappaB RelA interaction as a target to enhance
222 on of atrogenes, upstream regulators (FOXO1, FOXO3, NFKB1A), key components of the ubiquitin proteaso
224 Strikingly, acoustic stimulation promotes Foxo3 nuclear localization in vivo, implying a connectio
228 we show that p53 regulates the expression of FoxO3, one of the four mammalian FoxO genes, in response
231 e, interference of the prosurvival IGF-I/AKT/FOXO3 pathway by redox activation of the stress kinases
234 ad box of the O class transcription class 3 (FoxO3) phosphorylation and inhibited total GSK3 activity
235 this network mediated by RBP-J/NFATc1-miR182-FoxO3/PKR (previously identified miR182 targets) towards
241 by SIRT1 or SIRT2 facilitates Skp2-mediated FOXO3 poly-ubiquitination and proteasomal degradation.
242 ing (IEF) method to determine the pattern of FOXO3 posttranslational modifications (PTMs) induced by
245 The tumour suppressive transcription factor FOXO3 promotes cell cycle arrest, senescence and cell de
246 Ethanol suppressed arginine-methylation of FOXO3 promoting nuclear export and degradation of the JN
247 species scavengers or ectopic expression of FOXO3 protects MLL4(-/-) MLL-AF9 cells from DNA damage a
254 scription factor M1) and negative (FoxO1 and FoxO3) regulators of cardiomyocyte proliferation prenata
255 TFs) (STAT1, IRF7, SPI1, STAT4, IRF1, HIF1A, FOXO3, REL, NFAT5, HIC1, and IRF4) at 3 hours and a set
257 DNA damage-induced apoptosis and conversely FOXO3 requires ATM, Chk2 and phosphorylated p53 isoforms
258 TADCs expressed elevated levels of FOXO3 and Foxo3, respectively, which correlated with expression of
259 O3 mRNA stabilization, and overexpression of FOXO3 restores m(6) A-dependent sorafenib sensitivity.
260 f FOXO3 into arginines to mimic deacetylated FOXO3 resulted in enhanced Skp2 binding but with inhibit
262 nse and antioxidant genes, and deficiency of FoxO3 results in development of chronic obstructive pulm
263 the metabolic circuit observed upon loss of FoxO3 revealed a drop in glutaminolysis and filling of t
264 association between IGF-I concentration and FOXO3 (rs2153960, chromosome 6q21, P = 5.1 x 10(-7)), a
265 Collectively, our findings suggest that FOXO3 serves as a protector of HSC genomic stability and
268 -catenin-deficient livers, suggesting active FoxO3 signaling in response to DDC-induced liver injury
269 ce all three phenotypes, of which five (near FOXO3, SLC4A7, LINC02513, ZW10, and FGD6) have not been
270 neous quantification of differently modified FOXO3 species allowed us to demonstrate how HCV and alco
272 escence staining revealed an intense nuclear FoxO3 staining in beta-catenin-deficient livers, suggest
273 ially block the autophagic flux suggest that FoxO3 stimulates the formation of autophagosomes to incr
275 S9 and its oxalate salt S9OX interfere with FOXO3 target promoter binding, gene transcription and mo
278 ization of the forkhead transcription factor FoxO3 to the nucleus, thus inhibiting transcription of t
279 e recruited by forkhead transcription factor FoxO3 to the proximal promoter region of the Pcsk9 gene
280 irectly inhibits expression of the repressor foxo3, to prevent Foxo3 from binding to and repressing t
282 e to the ability of SIRT1 to deacetylate the FOXO3 transcription factor, since Foxo3 deficiency dimin
284 her alcohol or HCV infection alone increased FOXO3 transcriptional activity and expression of target
286 s and decreased gonadotropin levels in aging FOXO3-transgenic mice compared with wild-type littermate
287 deacetylation by SIRT1 or SIRT2 facilitates FOXO3 ubiquitination and subsequent proteasomal degradat
288 enhanced Skp2 binding but with inhibition of FOXO3 ubiquitination; this suggests that some or all of
289 horylation, and thus, enhanced activation of FOXO3, up-regulation of MuRF1 and Atrogin-1, and progres
290 triggering-factor, and transcription factor FOXO3 was a critical mediator for apoptotic EV-induced T
292 hesize that the anti-proliferative effect of FOXO3 was dependent on lowering LD density, thus decreas
295 of a transcription factor, forkhead box O3 (FoxO3), which is implicated in aging, blocked iN cell co
296 nically, PS341 upregulated the expression of FOXO3, which inhibited the transcriptional activation of
298 negative regulators of cytokine production: FOXO3, which is an inhibitory transcription factor, and
300 a, as well as increased nuclear exclusion of FOXO3, which was suppressed by LA1-dependent activation