Product: Acetyl-FOXO1A (Lys294) Antibody
Catalog: AF2305
Description: Rabbit polyclonal antibody to Acetyl-FOXO1A (Lys294)
Application: WB IHC
Reactivity: Human, Mouse, Rat, Monkey
Prediction: Pig, Bovine, Dog, Chicken, Xenopus
Mol.Wt.: 70kDa,90kDa; 70kD(Calculated).
Uniprot: Q12778
RRID: AB_2845319

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Product Info

Source:
Rabbit
Application:
WB 1:500-1:2000, IHC 1:50-1:200
*The optimal dilutions should be determined by the end user.
*Tips:

WB: For western blot detection of denatured protein samples. IHC: For immunohistochemical detection of paraffin sections (IHC-p) or frozen sections (IHC-f) of tissue samples. IF/ICC: For immunofluorescence detection of cell samples. ELISA(peptide): For ELISA detection of antigenic peptide.

Reactivity:
Human,Mouse,Rat,Monkey
Prediction:
Pig(100%), Bovine(100%), Dog(100%), Chicken(100%), Xenopus(91%)
Clonality:
Polyclonal
Specificity:
Acetyl-FOXO1A (Lys294) Antibody detects endogenous levels of Acetyl-FOXO1A only when acetylated at Lys294.
RRID:
AB_2845319
Cite Format: Affinity Biosciences Cat# AF2305, RRID:AB_2845319.
Conjugate:
Unconjugated.
Purification:
The antiserum was purified by peptide affinity chromatography using SulfoLink™ Coupling Resin (Thermo Fisher Scientific).
Storage:
Rabbit IgG in phosphate buffered saline , pH 7.4, 150mM NaCl, 0.02% sodium azide and 50% glycerol. Store at -20 °C. Stable for 12 months from date of receipt.
Alias:

Fold/Unfold

FKH 1; FKH1; FKHR; Forkhead (Drosophila) homolog 1 (rhabdomyosarcoma); Forkhead box O1; Forkhead box protein O1; Forkhead box protein O1A; Forkhead in rhabdomyosarcoma; Forkhead, Drosophila, homolog of, in rhabdomyosarcoma; FoxO transcription factor; foxo1; FOXO1_HUMAN; FOXO1A; OTTHUMP00000018301;

Immunogens

Immunogen:
Uniprot:
Gene(ID):
Expression:
Q12778 FOXO1_HUMAN:

Ubiquitous.

Sequence:
MAEAPQVVEIDPDFEPLPRPRSCTWPLPRPEFSQSNSATSSPAPSGSAAANPDAAAGLPSASAAAVSADFMSNLSLLEESEDFPQAPGSVAAAVAAAAAAAATGGLCGDFQGPEAGCLHPAPPQPPPPGPLSQHPPVPPAAAGPLAGQPRKSSSSRRNAWGNLSYADLITKAIESSAEKRLTLSQIYEWMVKSVPYFKDKGDSNSSAGWKNSIRHNLSLHSKFIRVQNEGTGKSSWWMLNPEGGKSGKSPRRRAASMDNNSKFAKSRSRAAKKKASLQSGQEGAGDSPGSQFSKWPASPGSHSNDDFDNWSTFRPRTSSNASTISGRLSPIMTEQDDLGEGDVHSMVYPPSAAKMASTLPSLSEISNPENMENLLDNLNLLSSPTSLTVSTQSSPGTMMQQTPCYSFAPPNTSLNSPSPNYQKYTYGQSSMSPLPQMPIQTLQDNKSSYGGMSQYNCAPGLLKELLTSDSPPHNDIMTPVDPGVAQPNSRVLGQNVMMGPNSVMSTYGSQASHNKMMNPSSHTHPGHAQQTSAVNGRPLPHTVSTMPHTSGMNRLTQVKTPVQVPLPHPMQMSALGGYSSVSSCNGYGRMGLLHQEKLPSDLDGMFIERLDCDMESIIRNDLMDGDTLDFNFDNVLPNQSFPHSVKTTTHSWVSG

Predictions

Predictions:

Score>80(red) has high confidence and is suggested to be used for WB detection. *The prediction model is mainly based on the alignment of immunogen sequences, the results are for reference only, not as the basis of quality assurance.

Species
Results
Score
Pig
100
Bovine
100
Dog
100
Chicken
100
Xenopus
91
Horse
0
Sheep
0
Zebrafish
0
Rabbit
0
Model Confidence:
High(score>80) Medium(80>score>50) Low(score<50) No confidence

PTMs - Q12778 As Substrate

Site PTM Type Enzyme
T24 Phosphorylation P31751 (AKT2) , P31749 (AKT1) , P11309-2 (PIM1) , PR:P31749 (hAKT1)
S152 Phosphorylation
S153 Phosphorylation
S164 Phosphorylation
T182 Phosphorylation
S184 Phosphorylation
S205 Phosphorylation
K210 Ubiquitination
S212 Phosphorylation Q13043 (STK4)
S215 Phosphorylation
S218 Phosphorylation
K222 Acetylation
S234 Phosphorylation
S235 Phosphorylation
K245 Acetylation
S246 Phosphorylation P28482 (MAPK1)
K248 Acetylation
S249 Phosphorylation P06493 (CDK1) , Q00535 (CDK5) , P24941 (CDK2) , P11802 (CDK4)
R251 Methylation
R253 Methylation
S256 Phosphorylation PR:P31749 (hAKT1) , Q13153 (PAK1) , Q16512 (PKN1) , P31749 (AKT1) , P31751 (AKT2) , P11309-2 (PIM1)
K262 Acetylation
K265 Acetylation
K274 Acetylation
S276 Phosphorylation
S287 Phosphorylation
S293 Phosphorylation
K294 Acetylation
S298 Phosphorylation
S301 Phosphorylation
S303 Phosphorylation
T317 O-Glycosylation
S318 O-Glycosylation
S319 Phosphorylation PR:P31749 (hAKT1) , Q13237 (PRKG2) , P31749 (AKT1) , P11309-2 (PIM1)
S322 Phosphorylation P48729 (CSNK1A1) , Q9HCP0 (CSNK1G1)
T323 Phosphorylation
S325 Phosphorylation P48729 (CSNK1A1) , P49841 (GSK3B)
S329 Phosphorylation Q9UBE8 (NLK) , Q13627 (DYRK1A)
T333 Phosphorylation
S383 Phosphorylation
S394 Phosphorylation
T402 Phosphorylation
S413 Phosphorylation P28482 (MAPK1)
S416 Phosphorylation Q16539 (MAPK14)
S418 Phosphorylation P28482 (MAPK1)
S429 Phosphorylation P28482 (MAPK1)
S430 Phosphorylation
S432 Phosphorylation Q16539 (MAPK14)
T467 Phosphorylation
S470 Phosphorylation P28482 (MAPK1) , Q16539 (MAPK14)
T478 Phosphorylation Q16539 (MAPK14) , P28482 (MAPK1)
S505 Phosphorylation
S509 Phosphorylation
S550 O-Glycosylation
T560 Phosphorylation Q16539 (MAPK14) , P28482 (MAPK1)
K597 Acetylation
T648 O-Glycosylation
T649 Phosphorylation Q13131 (PRKAA1)
S651 Phosphorylation
S654 O-Glycosylation

Research Backgrounds

Function:

Transcription factor that is the main target of insulin signaling and regulates metabolic homeostasis in response to oxidative stress. Binds to the insulin response element (IRE) with consensus sequence 5'-TT[G/A]TTTTG-3' and the related Daf-16 family binding element (DBE) with consensus sequence 5'-TT[G/A]TTTAC-3'. Activity suppressed by insulin. Main regulator of redox balance and osteoblast numbers and controls bone mass. Orchestrates the endocrine function of the skeleton in regulating glucose metabolism. Acts synergistically with ATF4 to suppress osteocalcin/BGLAP activity, increasing glucose levels and triggering glucose intolerance and insulin insensitivity. Also suppresses the transcriptional activity of RUNX2, an upstream activator of osteocalcin/BGLAP. In hepatocytes, promotes gluconeogenesis by acting together with PPARGC1A and CEBPA to activate the expression of genes such as IGFBP1, G6PC and PCK1. Important regulator of cell death acting downstream of CDK1, PKB/AKT1 and STK4/MST1. Promotes neural cell death. Mediates insulin action on adipose tissue. Regulates the expression of adipogenic genes such as PPARG during preadipocyte differentiation and, adipocyte size and adipose tissue-specific gene expression in response to excessive calorie intake. Regulates the transcriptional activity of GADD45A and repair of nitric oxide-damaged DNA in beta-cells. Required for the autophagic cell death induction in response to starvation or oxidative stress in a transcription-independent manner. Mediates the function of MLIP in cardiomyocytes hypertrophy and cardiac remodeling (By similarity).

PTMs:

Phosphorylation by NLK promotes nuclear export and inhibits the transcriptional activity. In response to growth factors, phosphorylation on Thr-24, Ser-256 and Ser-322 by PKB/AKT1 promotes nuclear export and inactivation of transactivational activity. Phosphorylation on Thr-24 is required for binding 14-3-3 proteins. Phosphorylation of Ser-256 decreases DNA-binding activity and promotes the phosphorylation of Thr-24 and Ser-319, permitting phosphorylation of Ser-322 and Ser-325, probably by CDK1, leading to nuclear exclusion and loss of function. Stress signals, such as response to oxygen or nitric oxide, attenuate the PKB/AKT1-mediated phosphorylation leading to nuclear retention. Phosphorylation of Ser-329 is independent of IGF1 and leads to reduced function. Dephosphorylated on Thr-24 and Ser-256 by PP2A in beta-cells under oxidative stress leading to nuclear retention (By similarity). Phosphorylation of Ser-249 by CDK1 disrupts binding of 14-3-3 proteins leading to nuclear accumulation and has no effect on DNA-binding nor transcriptional activity. Phosphorylation by STK4/MST1 on Ser-212, upon oxidative stress, inhibits binding to 14-3-3 proteins and nuclear export.

Acetylated. Acetylation at Lys-262, Lys-265 and Lys-274 are necessary for autophagic cell death induction. Deacetylated by SIRT2 in response to oxidative stress or serum deprivation, thereby negatively regulating FOXO1-mediated autophagic cell death.

Ubiquitinated by SKP2. Ubiquitination leads to proteasomal degradation.

Methylation inhibits AKT1-mediated phosphorylation at Ser-256 and is increased by oxidative stress.

Once in the nucleus, acetylated by CREBBP/EP300. Acetylation diminishes the interaction with target DNA and attenuates the transcriptional activity. It increases the phosphorylation at Ser-256. Deacetylation by SIRT1 results in reactivation of the transcriptional activity. Oxidative stress by hydrogen peroxide treatment appears to promote deacetylation and uncoupling of insulin-induced phosphorylation. By contrast, resveratrol acts independently of acetylation.

Subcellular Location:

Cytoplasm. Nucleus.
Note: Shuttles between the cytoplasm and nucleus. Largely nuclear in unstimulated cells. In osteoblasts, colocalizes with ATF4 and RUNX2 in the nucleus (By similarity). Insulin-induced phosphorylation at Ser-256 by PKB/AKT1 leads, via stimulation of Thr-24 phosphorylation, to binding of 14-3-3 proteins and nuclear export to the cytoplasm where it is degraded by the ubiquitin-proteosomal pathway. Phosphorylation at Ser-249 by CDK1 disrupts binding of 14-3-3 proteins and promotes nuclear accumulation. Phosphorylation by NLK results in nuclear export. Translocates to the nucleus upon oxidative stress-induced phosphorylation at Ser-212 by STK4/MST1. SGK1-mediated phosphorylation also results in nuclear translocation. Retained in the nucleus under stress stimuli including oxidative stress, nutrient deprivation or nitric oxide. Retained in the nucleus on methylation.

Extracellular region or secreted Cytosol Plasma membrane Cytoskeleton Lysosome Endosome Peroxisome ER Golgi apparatus Nucleus Mitochondrion Manual annotation Automatic computational assertionSubcellular location
Tissue Specificity:

Ubiquitous.

Subunit Structure:

Interacts with LRPPRC. Interacts with RUNX2; the interaction inhibits RUNX2 transcriptional activity and mediates the IGF1/insulin-dependent BGLAP expression in osteoblasts Interacts with PPP2R1A; the interaction regulates the dephosphorylation of FOXO1 at Thr-24 and Ser-256 leading to its nuclear import. Interacts (acetylated form) with PPARG. Interacts with XBP1 isoform 2; this interaction is direct and leads to FOXO1 ubiquitination and degradation via the proteasome pathway (By similarity). Interacts with NLK. Interacts with SIRT1; the interaction results in the deacetylation of FOXO1 leading to activation of FOXO1-mediated transcription of genes involved in DNA repair and stress resistance. Binds to CDK1. Interacts with the 14-3-3 proteins, YWHAG and YWHAZ; the interactions require insulin-stimulated phosphorylation on Thr-24, promote nuclear exit and loss of transcriptional activity. Interacts with SKP2; the interaction ubiquitinates FOXO1 leading to its proteosomal degradation. The interaction requires the presence of KRIT1. Interacts (via the C-terminal half) with ATF4 (via its DNA-binding domain); the interaction occurs in osteoblasts, regulates glucose homeostasis via suppression of beta-cell proliferation and subsequent decrease in insulin production. Interacts with PRMT1; the interaction methylates FOXO1, prevents PKB/AKT1 phosphorylation and retains FOXO1 in the nucleus. Interacts with EP300 and CREBBP; the interactions acetylate FOXO1. Interacts with SIRT2; the interaction is disrupted in response to oxidative stress or serum deprivation, leading to increased level of acetylated FOXO1, which promotes stress-induced autophagy by stimulating E1-like activating enzyme ATG7. Interacts (acetylated form) with ATG7; the interaction is increased in response to oxidative stress or serum deprivation and promotes the autophagic process leading to cell death. Interacts (via the Fork-head domain) with CEBPA; the interaction increases when FOXO1 is deacetylated. Interacts with WDFY2. Forms a complex with WDFY2 and AKT1 (By similarity). Interacts with CRY1 (By similarity).

Research Fields

· Cellular Processes > Cell growth and death > Cellular senescence.   (View pathway)

· Environmental Information Processing > Signal transduction > FoxO signaling pathway.   (View pathway)

· Environmental Information Processing > Signal transduction > AMPK signaling pathway.   (View pathway)

· Human Diseases > Endocrine and metabolic diseases > Insulin resistance.

· Human Diseases > Infectious diseases: Viral > Human papillomavirus infection.

· Human Diseases > Cancers: Overview > Pathways in cancer.   (View pathway)

· Human Diseases > Cancers: Overview > Transcriptional misregulation in cancer.

· Human Diseases > Cancers: Specific types > Prostate cancer.   (View pathway)

· Organismal Systems > Aging > Longevity regulating pathway.   (View pathway)

· Organismal Systems > Aging > Longevity regulating pathway - multiple species.   (View pathway)

· Organismal Systems > Endocrine system > Insulin signaling pathway.   (View pathway)

· Organismal Systems > Endocrine system > Thyroid hormone signaling pathway.   (View pathway)

· Organismal Systems > Endocrine system > Glucagon signaling pathway.

References

1). Autophagy promotes directed migration of HUVEC in response to electric fields through the ROS/SIRT1/FOXO1 pathway. Free Radical Biology and Medicine, 2022 (PubMed: 36162742) [IF=7.4]

2). S100A11 Promotes Liver Steatosis via FOXO1-Mediated Autophagy and Lipogenesis. Cellular and Molecular Gastroenterology and Hepatology, 2021 (PubMed: 33075563) [IF=7.2]

Application: WB    Species: mouse    Sample: Hepa 1–6 cells

Figure 16. |(See previous page). Inhibition of FOXO1 and autophagy decreased lipid content and the level of proteins related to the autophagy process in the S100A11 overexpression Hepa 1–6 cells.(F) Quantification of the results from panel E by ImageJ. Western blot detection and quantification of related proteins in the S100A11 overexpression Hepa 1–6 cells treated with (G and H) 10 nmol/L BAF, (I and J) 2 mmol/L 3-MA, and (K and L) RNA interference of Atg7, respectively.

3). Oleic and linoleic acids promote chondrocyte apoptosis by inhibiting autophagy via downregulation of SIRT1/FOXO1 signaling. Biochimica et biophysica acta. Molecular basis of disease, 2024 (PubMed: 38378085) [IF=6.2]

Application: WB    Species: Rat    Sample:

Fig. 3. Identification of differentially expressed mRNAs and gene set enrichment analysis. (A) Heatmap of differentially expressed genes (DEGs) between chondrocytes treated with 20 μM OLA or LA and control samples (three different samples in each group) (B) Schematic illustration showing the overlap between the target DEGs from the OLA or LA treatment group and those from the control group. (C) Classification of the overlapping genes in accordance with the Gene Ontology (GO) categories of biological processed, cellular component, and molecular function. The vertical axis represents the number of DEGs corresponding to the number of GO terms assigned to a particular GO category. (D) GO chord diagram representing the results of cluster analysis of the DEGs in 10 categories. (E) Western blot analysis of FOXO1, SIRT1, ATG5, LC3-II, and BAX expression was conducted in chondrocytes treated with 20 μM OLA or LA. (F) Quantitative analysis of the protein levels in (E) (n = 3) (G) Real-time PCR analysis showing FOXO1 and SIRT1 expression in 20 μM OLA- and LA-induced normal chondrocytes (n = 3). Error bars present mean ± SD. * p < 0.05, ** p < 0.01, and *** p < 0.001.

4). Ginsenoside Rc Alleviates Myocardial Ischemia-Reperfusion Injury by Reducing Mitochondrial Oxidative Stress and Apoptosis: Role of SIRT1 Activation. Journal of Agricultural and Food Chemistry, 2023 (PubMed: 36626267) [IF=6.1]

5). Leucine Supplementation in Middle-Aged Male Mice Improved Aging-Induced Vascular Remodeling and Dysfunction via Activating the Sirt1-Foxo1 Axis. Nutrients, 2022 (PubMed: 36145233) [IF=5.9]

6). Paternal High-Fat Diet Altered Sperm 5'tsRNA-Gly-GCC Is Associated With Enhanced Gluconeogenesis in the Offspring. Frontiers in Molecular Biosciences, 2022 (PubMed: 35480893) [IF=5.0]

7). NAD-Dependent Protein Deacetylase Sirtuin-1 Mediated Mitophagy Regulates Early Brain Injury After Subarachnoid Hemorrhage. Journal of inflammation research, 2024 (PubMed: 38562659) [IF=4.5]

8). Chidamide Suppresses the Growth of Cholangiocarcinoma by Inhibiting HDAC3 and Promoting FOXO1 Acetylation. Stem Cells International, 2022 (PubMed: 35126526) [IF=4.3]

Application: WB    Species: Human    Sample: QBC939 and SNU308 cells

Figure 4 CDM enhances FOXO1 acetylation by inhibiting HDAC3. (a) HDAC3 protein expression and FOXO1 acetylation level in QBC939 and SNU308 cells treated with sh-HDAC3 detected by Western blotting. ∗p < 0.05 and ∗∗p < 0.01, compared with cells treated with sh-NC. (b) After inhibiting the expression of HDAC3 in QBC939 and SNU308 cells, IP was performed by FLAG precipitation and nuclear and cytosolic Ac-FOXO1. (c) HDAC3 protein expression and FOXO1 acetylation level in QBC939 and SNU308 cells treated with CDM-H or combined with oe-HDAC3 detected by Western blotting. ∗∗p < 0.01, compared with cells treated with CDM-H. #p < 0.05, compared with cells treated with oe-NC. (d) After overexpressing HDAC3 in QBC939 and SNU308 cells, IP was performed by FLAG precipitation and nuclear and cytosolic Ac-FOXO1. Data were shown as the mean ± standard deviation. An unpaired t-test was employed for data comparison between two groups, while one-way ANOVA with Tukey's post hoc test was used for multi-group data comparison. The experiment was repeated three times.

Application: IHC    Species: Mice    Sample: tumor tissues

Figure 5 CDM suppresses the growth of CCA in vivo. (a) Tumor volume of control and CDM mice. (b) Tumor weight of control and CDM mice. (c) The distribution of CDM in the tumor and major organs of nude mice. (d) Representative images showing xenografts in nude mice and H&E staining of tumor tissues of control and CDM mice. (e) Immunohistochemical staining of HDAC3 protein and FOXO1 acetylation level in tumor tissues of control and CDM mice. (f) Western blotting of HDAC3 protein and FOXO1 acetylation level in tumor tissues of control and CDM mice. ∗p < 0.05 and∗∗p < 0.01, compared with control mice. Data were shown as the mean ± standard deviation. One-way ANOVA with Tukey's post hoc test was used for multigroup data comparison and repeated measures ANOVA with Tukey's post hoc test was applied to compare data at different time points. n = 6 for mice in each group.

9). The bcl6 corepressor mutation regulates the progression and transformation of myelodysplastic syndromes by repressing the autophagy flux. The international journal of biochemistry & cell biology, 2023 (PubMed: 37884171) [IF=4.0]

10). Tetrahydrocurcumin protects against sepsis-induced acute kidney injury via the SIRT1 pathway. RENAL FAILURE, 2021 (PubMed: 34187277) [IF=3.0]

Application: WB    Species: Mice    Sample: renal tissue

Figure 8. THC could protect renal tissue from sepsis-induced AKI through the activation of SIRT1. (A) Representative blots. (B) SIRT1 expression. (C) Relative SIRT1 activity. (D) Ac-NF-jB expression. (E) Ac-foxo1 expression. Data were presented as the mean±SEM (n¼6 in each group). ?? p< .01 vs. the CLP group, ^^ p< .01 vs. the CLPþTHC group, && p< .01 vs. the CLPþTHCþEX527 group.

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