| 2017 |
Nuclear ACLY is phosphorylated at S455 downstream of ATM and AKT following DNA double-strand breaks; this phosphorylation and nuclear localization enable ACLY to generate acetyl-CoA at DSB sites, promote histone acetylation, impair 53BP1 localization, and facilitate BRCA1 recruitment for homologous recombination repair. |
Phosphorylation-site mutagenesis, nuclear fractionation/localization experiments, siRNA knockdown with HR/NHEJ reporter assays, Co-IP, chromatin immunofluorescence |
Molecular cell |
High |
28689661
|
| 2016 |
ACLY is phosphorylated on serine 455 in CD4+ T lymphocytes upon IL-2-driven AKT activation; this phosphorylation is required for ACLY to enhance histone acetylation levels and induce cell-cycle gene expression, linking cytokine signaling to T-cell proliferation. |
Mass spectrometry-based nuclear phosphoproteomics, siRNA knockdown, pharmacological ACLY inhibition, histone acetylation quantification, cell-cycle/proliferation assays |
Molecular & cellular proteomics : MCP |
High |
27067055
|
| 2020 |
Hrd1, a subunit of the ER-associated degradation (ERAD) complex, interacts with ACLY and ubiquitinates it, promoting its proteasomal degradation and thereby reducing acetyl-CoA levels and lipogenesis in hepatocytes. |
Co-IP/mass spectrometry, co-immunoblotting, acetyl-CoA measurement, lipogenesis assays, adenovirus-mediated overexpression in db/db mice |
Metabolism: clinical and experimental |
High |
32888949
|
| 2022 |
ACLY undergoes K63-linked ubiquitination and is selectively recognized by the autophagy receptor SQSTM1/p62 for autophagic degradation in granulosa cells; this selective autophagy maintains citrate homeostasis and supports oocyte maturation. |
Co-IP with ubiquitin-linkage-specific antibodies, autophagy flux assays, SQSTM1 pulldown, granulosa cell autophagy inhibition/ablation, metabolomics, oocyte maturation scoring |
Autophagy |
High |
35404187
|
| 2021 |
RANKL-induced ACLY activation leads to nuclear translocation of ACLY in osteoclast precursors; nuclear ACLY supplies acetyl-CoA to GCN5 for H3 acetylation, and ACLY and GCN5 function in the same pathway to transcriptionally regulate Rac1 and thereby promote osteoclast differentiation and cytoskeletal organization. |
RANKL-stimulated differentiation assays, siRNA knockdown, ACLY inhibitor (BMS-303141), acetyl-CoA measurement, nuclear fractionation, ChIP, RNA-seq, GCN5 knockdown/overexpression epistasis, OVX mouse model |
Journal of bone and mineral research |
High |
34155695
|
| 2020 |
PIP2 (the PI3K substrate) and PIP3 (the PI3K product) bind directly to the CoA-binding domain of ACLY in AML cells; the Src-family kinase Lyn phosphorylates ACLY at six tyrosine residues (including Y682, Y252, Y227 located in catalytic, citrate-binding, and ATP-binding domains), stimulating ACLY enzymatic activity, acetyl-CoA synthesis, phospholipid synthesis, and histone acetylation. |
PIP-binding assays (domain mapping), in vitro kinase assay with Lyn/Src, mass spectrometry phosphosite identification, PI3K/Lyn inhibitor treatment with enzymatic activity readouts |
Heliyon |
Medium |
32420483
|
| 2019 |
ACLY physically interacts with and stabilizes CTNNB1 (β-catenin), promoting its translocation from cytoplasm to nucleus and enhancing CTNNB1 transcriptional activity to drive colon cancer cell migration and invasion. |
Co-IP, western blot, migration/invasion assays in ACLY-deficient cell lines, in vivo mouse colon metastasis model |
Journal of experimental & clinical cancer research : CR |
Medium |
31511060
|
| 2015 |
Loss of ACLY (or ACC1) protects cancer cells from hypoxia-induced apoptosis by paradoxically elevating α-ketoglutarate levels under hypoxia, which suppresses the expression and activity of the oncogenic transcription factor ETV4 via an epigenetic mechanism; supplementation with α-ketoglutarate recapitulates both ETV4 suppression and apoptosis protection. |
Genome-wide shRNA screen, metabolomics, α-ketoglutarate supplementation rescue, ETV4 knockdown epistasis, transcriptional profiling |
PLoS genetics |
High |
26452058
|
| 2016 |
ACLY-dependent fatty acid synthesis maintains AR protein levels in castration-resistant prostate cancer cells; ACLY inhibition combined with AR antagonism activates AMPK and further suppresses AR, and exogenous fatty acid supplementation restores AR levels and ER homeostasis, identifying an ACLY-AMPK-AR feedback loop. |
ACLY inhibitor treatment, AMPK activation measurement, AR protein/mRNA quantification, fatty acid rescue experiments, ER stress assays, gene expression correlation in human tumor data |
Oncotarget |
Medium |
27248322
|
| 2021 |
Nuclear translocation of ACLY, driven by AKT-mediated S455 phosphorylation in response to obesity-related factors (estradiol, insulin, leptin), increases histone acetylation at pyrimidine metabolism gene promoters (including DHODH) in endometrial cancer cells; STAT3 regulates ACLY expression at the transcriptional level by directly binding its promoter. |
Nuclear fractionation, phospho-site analysis, ChIP, siRNA knockdown, AKT inhibitor, promoter-binding assays |
Cancer letters |
Medium |
33991616
|
| 2023 |
SEC63 is phosphorylated at T537 by the IRE1α pathway upon ER stress; phosphorylated SEC63 stabilizes ACLY protein to increase acetyl-CoA and lipid biosynthesis; nuclear SEC63 coordinates with ACLY to epigenetically upregulate Snail1 expression, promoting HCC metastasis. |
GST pulldown, immunoprecipitation/mass spectrometry, in vivo ubiquitination/phosphorylation assays, immunofluorescence, RNA-seq, transwell assays |
Journal of experimental & clinical cancer research : CR |
Medium |
37122003
|
| 2022 |
SIRT2 deacetylates ACLY protein; SIRT2 inhibition increases ACLY acetylation and inhibits ESCC cell proliferation and migration, while ACLY overexpression partially rescues the inhibitory effect, placing SIRT2-mediated deacetylation upstream of ACLY stability and activity. |
Co-IP, acetylation immunoblotting, SIRT2 inhibitor (AGK2) treatment, ACLY overexpression rescue, proliferation/migration assays |
Journal of cellular and molecular medicine |
Medium |
38426936
|
| 2022 |
ARHGEF3 stabilizes ACLY protein by reducing its acetylation on Lys17 and Lys86, thereby preventing the binding of the E3 ligase NEDD4 to ACLY and its ubiquitin-mediated degradation; this function of ARHGEF3 is independent of its GEF activity. |
Co-IP, acetylation site mutagenesis (K17/K86), NEDD4 interaction assays, ARHGEF3 GEF-dead mutant, proliferation assays |
Cell death & disease |
Medium |
36241648
|
| 2023 |
ACLY-BP, a micropeptide encoded by LINC00887, physically associates with ACLY and maintains its acetylation, preventing ACLY ubiquitylation and proteasomal degradation, thereby sustaining lipid deposition and cell proliferation in clear cell renal cell carcinoma. |
Co-IP, acetylation/ubiquitination assays, ACLY-BP knockdown/overexpression, lipid quantification, tumor growth assays |
Molecular cancer research : MCR |
Medium |
37409966
|
| 2024 |
The RNA-binding protein RBM25 promotes exon 14 skipping of ACLY pre-mRNA, generating a short isoform (ACLY S) that lacks the lactylation sites (K918/K995) present in the long isoform (ACLY L); ACLY L is subject to protein lactylation which reduces its metabolic activity, whereas the ACLY S isoform enhances glycolysis and acetyl-CoA production for epigenetic remodeling and macrophage overactivation. |
RNA-seq splice isoform analysis, mass spectrometry-based lactylation site mapping, RBM25 knockdown, isoform-specific overexpression, metabolic flux assays, ChIP |
Cellular & molecular immunology |
Medium |
39251781
|
| 2025 |
SLC25A1 exports citrate from mitochondria to the cytosol where ACLY converts it to acetyl-CoA; this acetyl-CoA sustains FSP1 acetylation (primarily at K168 by KAT2B, reversed by HDAC3), preventing K29-linked ubiquitin-mediated proteasomal degradation of FSP1 and thereby suppressing ferroptosis. |
CRISPR-Cas9 SLC superfamily screen, co-IP, in vitro acetylation/deacetylation assays (KAT2B, HDAC3), ubiquitin-linkage-specific immunoprecipitation, pharmacological SLC25A1/ACLY inhibition in vitro and in vivo |
The EMBO journal |
High |
39881208
|
| 2024 |
ACLY inhibition causes polyunsaturated fatty acid (PUFA) peroxidation and mitochondrial DNA leakage, which activates the cGAS-STING innate immune pathway; this drives PD-L1 upregulation but also enables enhanced anti-tumor immunity when combined with PD-L1 blockade. |
Pharmacological and genetic ACLY inhibition, lipid peroxidation assays, mitochondrial damage quantification, cGAS-STING pathway activation assays, immunocompetent mouse tumor models, B cell/T cell depletion |
Science advances |
High |
38055816
|
| 2024 |
CD8 T cell responses depend on cytosolic acetyl-CoA produced by ACLY from citrate; ablation of ACLY triggers a compensatory ACSS2-dependent acetate pathway that fuels both TCA cycle and cytosolic acetyl-CoA production, maintaining histone acetylation and chromatin accessibility at effector gene loci. |
Conditional ACLY and ACSS2 knockout mice, in vivo infection models, acetate tracing, ATAC-seq chromatin accessibility, histone acetylation ChIP-seq, T cell functional assays |
The Journal of experimental medicine |
High |
39150482
|
| 2025 |
A novel ACLY inhibitor EVT0185 is converted to its CoA thioester (EVT0185-CoA) in liver by SLC27A2; cryo-EM structural analysis demonstrates that EVT0185-CoA directly occupies the CoA-binding site of ACLY; genetic ACLY inhibition in hepatocytes and tumors reduces HCC lesions, and this antitumor effect is associated with increased CXCL13, tumor-infiltrating B cells, and tertiary lymphoid structures, and is abolished by B cell depletion. |
Cryo-electron microscopy structure, pharmacological and genetic (hepatocyte-specific KO) ACLY inhibition, transcriptomic/spatial profiling, B cell depletion experiments, three mouse models of MASH-HCC |
Nature |
High |
40739358
|
| 2023 |
Nuclear ACLY (Acly) undergoes translocation from cytoplasm to nucleus in hepatocytes during ischemia-reperfusion (IR); nuclear Acly supplies acetyl-CoA for H3K9 acetylation and activates Foxa2-mediated protective gene expression; cytosolic ACLY does not provide this protection; steatosis disrupts nuclear translocation, worsening IR injury. |
Hepatocyte-specific ACLY knockout mice, nuclear fractionation, CUT&RUN assay, RNA-seq, H3K9 acetylation ChIP, Rspondin overexpression rescue, hypoxia-reperfusion cell model |
Hepatology (Baltimore, Md.) |
High |
37983829
|
| 2025 |
Alpha-synuclein A53T mutation and elevated α-Syn expression activate ACLY, increasing cytoplasmic acetyl-CoA; this promotes LKB1 acetylation, which inhibits AMPK and causes cytoplasmic retention of p300, lowering histone acetylation and increasing acetylation of cytoplasmic p300 substrates (e.g., raptor), leading to mTORC1 hyperactivation and impaired autophagy; ACLY inhibitors rescue these phenotypes in PD neurons, organoids, zebrafish, and mice. |
Human neurons, organoids, zebrafish and mouse PD models; acetyl-CoA quantification; LKB1/AMPK/p300/raptor acetylation assays; mTORC1 activity assays; ACLY inhibitor treatment rescue in multiple models |
Neuron |
High |
40262613
|
| 2019 |
ACLY inhibition in airway epithelial cells reverses PM2.5-induced epithelial-mesenchymal transition (EMT), migration, and invasion; PM2.5 exposure upregulates ACLY in vitro and in vivo, and ACLY knockdown restores epithelial marker expression and reduces mesenchymal markers. |
PM2.5 exposure model (30 passages), metabolomics, qRT-PCR, western blot, migration/invasion assays, siRNA knockdown, murine lung tissue analysis |
Ecotoxicology and environmental safety |
Medium |
30343145
|
| 2020 |
VHL promotes ubiquitination and degradation of PPARγ, which is the transcription factor that drives ACLY expression by binding to the PPRE element on the ACLY promoter; VHL deficiency thus upregulates ACLY via PPARγ stabilization, promoting lipid accumulation. |
Co-IP, ubiquitination assays in vitro and in vivo, promoter-binding assays (PPRE identification), adenovirus-mediated VHL overexpression in db/db mice |
Metabolism: clinical and experimental |
Medium |
32589900
|
| 2023 |
Cytoplasmic ENDOG releases Rictor from 14-3-3γ to activate the mTORC2-AKT-ACLY signaling axis, resulting in acetyl-CoA production and lipid synthesis; loss of ENDOG suppresses this axis and reduces lipid synthesis in hepatocytes. |
Competitive binding assays (ENDOG vs Rictor for 14-3-3γ), mTORC2/AKT activation assays, acetyl-CoA measurement, ENDOG knockout mice with HFD |
Nature communications |
Medium |
37794041
|
| 2024 |
ACLY inhibition reduces de novo lipogenesis in cardiac fibroblasts, limiting fatty acid supply for proliferation and decreasing H3K9 and H3K27 acetylation at promoters of fibrotic genes, thereby suppressing TGF-β-induced cardiac fibrosis. |
Acly gene silencing (AAV9-shRNA), pharmacological inhibition, 13C-glucose stable isotope tracing, ChIP for H3K9ac/H3K27ac at fibrotic gene promoters, histological fibrosis scoring in angiotensin II/phenylephrine mouse model |
Hypertension (Dallas, Tex. : 1979) |
Medium |
40047081
|
| 2025 |
VDR transcriptionally represses ACLY expression by binding to its promoter (confirmed by ChIP-qPCR and dual luciferase assay); VDR-mediated ACLY downregulation preserves the Nrf2/Keap1 antioxidant system and reduces lipid peroxidation in diabetic nephropathy. |
ChIP-qPCR, dual luciferase promoter assays, VDR knockout mice, ACLY overexpression rescue, ROS/MDA/4-HNE quantification |
FASEB journal |
Medium |
39302807
|
| 2024 |
In proinflammatory macrophages, the long ACLY isoform (ACLY L) undergoes protein lactylation at K918/K995, which reduces its metabolic activity; the short isoform (ACLY S), lacking these sites, is constitutively more active; RBM25 deficiency shifts expression toward ACLY S, enhancing acetyl-CoA production and inflammatory gene expression. |
Mass spectrometry-based lactylation mapping, isoform-specific expression constructs, metabolic flux and acetyl-CoA assays, RBM25 KO mice phenotyping |
Cellular & molecular immunology |
Medium |
39251781
|
| 2024 |
SIRT1 impairs H3K27 acetylation at the ACLY promoter, thereby repressing ACLY transcription and maintaining fatty acid oxidation; the SP1 transcription factor regulates this pathway by directly controlling SIRT1 expression, forming an SP1/SIRT1/ACLY axis in renal ischemia-reperfusion. |
ChIP assay (H3K27ac at ACLY promoter), RNA-seq, SIRT1 KO mice, AAV-mediated SIRT1 overexpression, bioinformatics |
International immunopharmacology |
Medium |
38608473
|
| 2021 |
SIRT6 controls nuclear levels of ACLY; SIRT6 inactivation causes accumulation of nuclear ACLY, increases nuclear acetyl-CoA pools, and drives locus-specific histone acetylation to upregulate cancer cell adhesion and migration genes. |
SIRT6 inactivation in cancer cells, nuclear ACLY quantification by fractionation, acetyl-CoA measurement, ChIP for histone acetylation at target gene loci, migration/invasion assays |
Genes |
Medium |
34573442
|
| 2023 |
FBXW7 (an E3 ubiquitin ligase) interacts with ACLY to promote its ubiquitination and proteasomal degradation; this interaction is activated downstream of NF-κB signaling following LPCAT1 knockdown in ccRCC, thereby reducing fatty acid production. |
RNA-seq, lipidomics, NF-κB pathway activation assays, Co-IP (FBXW7-ACLY interaction), ACLY protein stability assays |
International journal of biological sciences |
Medium |
39781455
|
| 2024 |
HIF-1A acts as a transcription factor that binds the ACLY promoter under hypoxia (confirmed by ChIP assay) and upregulates ACLY expression, driving gastric cancer progression and peritoneal metastasis. |
ChIP assay for HIF-1A binding to ACLY promoter, hypoxia treatment, qPCR/western blot, in vitro and in vivo functional assays |
Cell cycle (Georgetown, Tex.) |
Medium |
38009671
|
| 2022 |
IKKβ phosphorylation by the natural compound Dehy promotes K48-linked ubiquitination and proteasomal degradation of ACLY, reducing fatty acid synthesis in gastric cancer cells; IKKβ is the direct molecular target of Dehy as demonstrated by biolayer interferometry. |
Biolayer interferometry (direct binding), IKKβ phosphorylation assays, ACLY ubiquitination/degradation assays, network pharmacology, PDX in vivo model |
Journal of advanced research |
Medium |
38295877
|
| 2025 |
Pharmacological inhibition of ACLY by the natural compound isoginkgetin (ISOGK) directly binds ACLY protein (confirmed by SPR and CETSA), inhibits its enzymatic activity in vitro, and reduces hepatic cholesterol/lipid synthesis and atherosclerosis in vivo; the lipid-lowering effects are abolished when hepatic ACLY is knocked down, confirming ACLY as the on-target mechanism. |
Surface plasmon resonance (SPR), cellular thermal shift assay (CETSA), enzymatic activity assays, GalNAc-siRNA hepatic ACLY knockdown, atherosclerosis mouse/hamster models |
Theranostics |
High |
40225566
|
| 2019 |
ACLY inhibition by bempedoic acid requires its activation to a CoA thioester by liver-specific ACSL1; this prodrug mechanism restricts ACLY inhibition to the liver, avoiding skeletal muscle effects, and the active form competitively inhibits ACLY to reduce hepatic acetyl-CoA and upregulate LDL receptor expression. |
Described in review context with mechanistic basis from clinical and preclinical pharmacology studies; biochemical characterization of prodrug activation and competitive inhibition |
Progress in lipid research |
Medium |
31499095
|
| 2022 |
The ACLY inhibitor 326E is converted to its CoA thioester (326E-CoA), which inhibits ACLY enzymatic activity with IC50 = 5.31 μmol/L in vitro; this reduces de novo lipogenesis and increases cholesterol efflux, improving hyperlipidemia and atherosclerosis in hamsters, rhesus monkeys, and ApoE-/- mice. |
In vitro ACLY enzymatic activity assay (IC50 measurement), de novo lipogenesis assays, cholesterol efflux assays, pharmacokinetics, chronic animal model studies |
Acta pharmaceutica Sinica. B |
High |
36873173
|
| 2020 |
In CD8+ T cells, Acly inhibition during early activation specifically reduces H3K9 acetylation at the IRF4 promoter (without affecting global H3ac) and downregulates IRF4 expression, impairing early activation markers and shifting cellular metabolism toward fatty acid uptake over glucose uptake. |
Acly inhibitor (BMS303141) in polyclonal murine CD8+ T cell activation, promoter-specific ChIP for H3ac, IRF4 expression analysis, metabolic substrate uptake assays |
Cytometry. Part A |
Medium |
33325591
|