| 2007 |
SMCX/JARID1C (KDM5C) encodes a JmjC-domain histone demethylase that reverses H3K4me3 to H3K4me2 and H3K4me1, but not to unmethylated H3K4. The N-terminal PHD finger binds H3K9me3 peptides, suggesting coordination of H3K4 demethylation and H3K9 methylation in transcriptional repression. XLMR patient point mutations reduce demethylase activity or H3K9me3 binding. |
In vitro histone demethylase assay, PHD-peptide binding assay, mutagenesis of patient variants, zebrafish and primary neuron loss-of-function studies |
Cell |
High |
17320160
|
| 2007 |
SMCX/JARID1C (KDM5C) forms a stable complex in HeLa cells with the histone deacetylases HDAC1 and HDAC2, the H3K9 methyltransferase G9a, and the transcriptional repressor REST. This complex co-occupies neuron-restrictive silencing elements (NRSEs) at REST target gene promoters (SCN2A, SYN1). siRNA-mediated KDM5C depletion derepresses these targets and increases H3K4me3 at their promoters. |
Co-immunoprecipitation from HeLa nuclear extracts, chromatin immunoprecipitation (ChIP), siRNA knockdown with RT-PCR and ChIP readout |
Nature |
High |
17468742
|
| 2007 |
SMCX/KDM5C (an SMCX isoform) can reside predominantly in the cytoplasm yet retains H3K4me3 demethylase activity. KDM5C requires multiple functional domains for demethylase activity and forms homomers through amino acids 204–493. KDM5C physically interacts with Smad3 and overexpression of KDM5C inhibits Smad3-mediated transcriptional activation, making KDM5C a Smad3 co-repressor. |
Subcellular fractionation, in vitro demethylase assay, co-immunoprecipitation (KDM5C–Smad3 interaction), reporter gene transcription assay with overexpression |
Biochemical and biophysical research communications |
Medium |
18078810
|
| 2008 |
The Jarid1c locus escapes X chromosome inactivation as an intrinsic property of its DNA sequence. Transgenic BACs carrying mouse Jarid1c integrated into normally X-inactivated regions still escaped X-inactivation, delimiting the escape domain to the 112-kb BAC overlap, independent of chromosomal position. |
Transgenic BAC integration into XX embryonic stem cells, allelic expression analysis, RNA/DNA FISH |
Proceedings of the National Academy of Sciences of the United States of America |
High |
18971342
|
| 2011 |
KDM5C (SMCX) loading onto chromatin requires the protein PCNA. siRNA knockdown of PCNA reduced the chromatin-bound fraction of SMCX. A PCNA-interaction protein (PIP) box was identified in SMCX; site-directed mutagenesis of the PIP box residues abolished SMCX–PCNA association and SMCX chromatin binding. |
siRNA knockdown with chromatin fractionation, PIP-box identification, site-directed mutagenesis, co-immunoprecipitation |
Epigenetics & chromatin |
Medium |
21996408
|
| 2012 |
ARX directly regulates KDM5C expression by binding a conserved noncoding element in the KDM5C regulatory region. PolyA-expansion mutations in ARX reduce trans-activation of KDM5C. Arx knockout in murine neural stem cells dramatically reduces Kdm5c mRNA, leading to decreased KDM5C protein and an inverse increase in H3K4me3 signal during neuronal differentiation. |
Reporter gene assay (KDM5C promoter), ChIP for ARX binding, quantitative RT-PCR in Arx-KO cells, H3K4me3 immunoblot |
American journal of human genetics |
Medium |
23246292
|
| 2015 |
KDM5C/JARID1C is required for proper firing of early DNA replication origins. KDM5C demethylates H3K4me3 at origins to facilitate assembly of the pre-initiation complex, driving chromatin binding of CDC45 and PCNA; fork activation and histone H4 acetylation are not affected by KDM5C downregulation. |
siRNA knockdown, ChIP for replication proteins (CDC45, PCNA) and histone marks, DNA fiber assay for fork activation |
Nucleic acids research |
Medium |
25712104
|
| 2015 |
JARID1C/KDM5C binds broadly to H3K9me3-marked heterochromatin, localizes on heterochromatin, is required for heterochromatin replication, and forms a complex with SUV39H1, HP1α, and the CUL4 adaptor DDB1. Loss of JARID1C in ccRCC cells causes unrestrained expression of heterochromatic noncoding RNAs, triggering genomic instability. |
ChIP-seq, co-immunoprecipitation (KDM5C–SUV39H1/HP1α/DDB1 complex), siRNA/shRNA knockdown with ncRNA expression and genomic rearrangement readouts |
The Journal of clinical investigation |
High |
26551685
|
| 2015 |
Patient KDM5C missense mutations P480L and D402Y compromise protein stability and enzymatic demethylase activity, while a start-codon mutation (c.2T>C) leads to production of an N-terminally truncated protein lacking detectable demethylase activity. Patient fibroblasts show local changes in gene expression without global changes in histone methylation. |
Biochemical demethylase activity assay in patient cells, protein stability assays, immunoblot from primary fibroblasts, RNA-seq |
Human molecular genetics |
Medium |
25666439
|
| 2017 |
Kdm5c acts as a transcriptional repressor responsible for developmental silencing of germline genes during neuronal differentiation and for fine-tuning activity-regulated enhancers during neuronal maturation. In adult neurons, Kdm5c prevents incorrect activation of non-neuronal and cryptic promoters. These roles were established using Kdm5c-null and forebrain-restricted inducible knockout mice with transcriptomic and epigenomic (ChIP-seq) analyses. |
Conditional and constitutive Kdm5c knockout mice, RNA-seq, ChIP-seq, behavioral assays |
Cell reports |
High |
28978483
|
| 2018 |
HPV16 E6 oncoprotein physically interacts with KDM5C and promotes its degradation in an E6AP E3 ligase- and proteasome-dependent manner. Ectopic KDM5C reduces H3K4me3 at super-enhancers of the EGFR and c-MET oncogenes, dampening enhancer RNA transcription and oncogene expression in HPV16-positive cervical cancer cells. |
Co-immunoprecipitation (E6–KDM5C), proteasome inhibitor rescue, ChIP-seq, RNA-seq, KDM5C overexpression in CaSki cells |
Cancer research |
High |
29339538
|
| 2018 |
SMCX/KDM5C and components of the TIP60 complex contribute to HPV E2-mediated repression of the HPV LCR promoter. Di- and tri-methyl marks on H3K4 are reduced in the presence of E2 and SMCX, suggesting a mechanism by which SMCX demethylase activity mediates E2-dependent repression. |
ChIP for H3K4me2/3 marks at HPV LCR, siRNA knockdown, reporter assay |
Virology |
Medium |
25222147
|
| 2018 |
A KDM5C mutation (R1115H) that does not affect enzymatic activity or protein stability nevertheless fails to fully suppress target gene expression when overexpressed in post-mitotic neurons and alters expression of a distinct gene set compared to wild-type KDM5C, indicating KDM5C has non-enzymatic roles in gene regulation. |
Demethylase activity assay, protein stability assay, overexpression in primary neurons with RNA-seq |
Frontiers in molecular neuroscience |
Medium |
29670509
|
| 2019 |
KDM5C is regulated transcriptionally by a network of ARX, ZNF711, and PHF8: ARX and ZNF711 function as antagonistic transcription factors that activate KDM5C expression and compete for recruitment of PHF8 at the KDM5C promoter. In vitro promoter analysis and functional mutation studies show that severity of NDD phenotype correlates with reduction in KDM5C transcriptional activity. |
KDM5C promoter luciferase assay, ChIP for ARX/ZNF711/PHF8 binding, qRT-PCR in Arx-KO neurons, SAHA rescue experiments in C. elegans and mouse ES-derived neurons |
Human molecular genetics |
Medium |
31691806
|
| 2020 |
KDM5C dosage, escaping X-inactivation, influences adipocyte chromatin accessibility, gene expression, and differentiation. In preadipocytes, KDM5C levels regulate extracellular matrix remodeling gene expression. Reducing Kdm5c gene dosage in XX female mice to XY male levels decreases body weight, fat content, and food intake. |
ATAC-seq, RNA-seq, in vitro adipocyte differentiation with KDM5C modulation, in vivo mouse model with Kdm5c dosage alteration |
The Journal of clinical investigation |
High |
32701509
|
| 2020 |
KMT2A and KDM5C function as a mutually suppressive writer-eraser pair at H3K4: despite opposing enzymatic activities, double mutation of Kmt2a and Kdm5c in mice reverses dendritic spine reduction, aggression, and altered transcriptomes/H3K4me landscapes observed in each single mutant, demonstrating genetic epistasis between the writer and eraser. |
Double-knockout mouse model, dendritic morphology analysis, behavioral assays, RNA-seq, H3K4me ChIP-seq |
Communications biology |
High |
32483278
|
| 2020 |
KDM5C attenuation in porcine embryos increases H3K9me1 on day 3 embryos and H3K4me1 on day 5 embryos (distinct from KDM5B), delays embryo genome activation, and impairs DNA double-strand break repair. |
Morpholino antisense knockdown in porcine embryos, histone methylation immunostaining, uridine incorporation assay, γH2AX staining for DSBs |
Frontiers in cell and developmental biology |
Medium |
32211412
|
| 2021 |
KDM5C specifically demethylates H3K4me3 at the BRMS1 gene promoter, repressing BRMS1 transcription and thereby promoting breast cancer cell migration and invasion. BRMS1 knockdown reverses the migration inhibition caused by KDM5C silencing. |
siRNA knockdown, ChIP for H3K4me3 at BRMS1 promoter, migration/invasion assays, rescue experiment with BRMS1 siRNA |
Biochemical and biophysical research communications |
Medium |
26182878
|
| 2021 |
KDM5C has dual activator and repressor activities: it binds active enhancers and recruits the P-TEFb complex to activate ERα-target genes; simultaneously it inhibits TBK1 phosphorylation in the cytosol to repress type I interferons. The co-factor ZMYND8 is involved in both processes. |
Co-immunoprecipitation (KDM5C–ZMYND8, KDM5C–P-TEFb), ChIP-seq, RNA-seq, TBK1 phosphorylation assay, KDM5C overexpression/KD |
Advanced science |
Medium |
33977073
|
| 2021 |
KDM5C deficiency reprograms glycogen metabolism by specifically regulating HIF-related genes and G6PD (involved in glycogenesis/glycogenolysis and the pentose phosphate pathway) through its histone demethylase activity, thereby increasing NADPH/GSH and conferring resistance to ferroptosis in ccRCC cells. |
Heavy isotope tracer metabolic flux analysis, RNA-seq, CRISPR-Cas9 Kdm5c knockout mice, ChIP for H3K4me3, xenograft models |
Theranostics |
High |
34522206
|
| 2022 |
KDM5C activates Xist lncRNA expression, required for stable X-inactivation, by converting H3K4me2/3 to H3K4me1 at the Xist locus. The Y-linked homolog KDM5D does not substitute for this function. This activity is conserved across eutherian and metatherian (marsupial) mammals and predates divergence of these lineages. |
Kdm5c conditional knockout in female cells (Xist RNA FISH), ectopic expression of mouse/human/marsupial/platypus KDM5C and KDM5D in male mESCs (Xist induction assay), H3K4 methylation ChIP |
Nature communications |
High |
35545632
|
| 2022 |
TRIM11 is an E3 ubiquitin ligase for KDM5C that catalyzes K48-linked ubiquitin chains on KDM5C and promotes its proteasomal degradation. TRIM11 deficiency stabilizes KDM5C, and TRIM11/KDM5C regulate enhancer H3K4me3 at the MCAM gene to control cell migration. |
Co-immunoprecipitation (TRIM11–KDM5C), ubiquitination assay (K48-linked chain specificity), ChIP for H3K4me3 at MCAM enhancer, TRIM11 KO animal model |
Cell death & disease |
High |
36192394
|
| 2022 |
The ARID domain of KDM5C is required for efficient nucleosome demethylation, whereas the PHD1 domain has an inhibitory role in KDM5C catalysis. The unstructured linker between ARID and PHD1 interacts with PHD1 and is necessary for nucleosome binding. XLID mutations adjacent to these domains enhance DNA binding and reduce specificity, resulting in lower demethylase activity in the presence of flanking DNA. |
In vitro binding assays with nucleosomes, kinetic demethylase assays, domain deletion/mutagenesis, XLID patient mutation analysis |
Journal of molecular biology |
High |
36495919
|
| 2022 |
KDM5C interacts with E2F6, which recruits KDM5C to the SF3A3 promoter where KDM5C demethylates H3K4me2 at the GpC island, leading to increased SF3A3 expression and bladder cancer progression. |
Co-immunoprecipitation (E2F6–KDM5C), ChIP for KDM5C and H3K4me2 at SF3A3 promoter, luciferase reporter assay |
Cancer cell international |
Medium |
35248043
|
| 2024 |
KDM5C directly controls WNT signaling output during a specific developmental window to regulate the timely transition of primary to intermediate neural progenitor cells and neurogenesis. WNT inhibition during this window rescues transcriptomic and chromatin landscape changes in patient iPSC-derived cells and behavioral changes in Kdm5c-KO mice. A single WNT3A injection into wild-type embryonic mouse brains phenocopies KDM5C-related anxiety and memory alterations. |
Human patient iPSC differentiation, Kdm5c KO mouse behavioral studies, RNA-seq, ATAC-seq, WNT modulator treatment with rescue experiments, in vivo WNT3A injection |
Nature |
High |
38383780
|
| 2024 |
KDM5C interacts with BRD4 via the BRD4 C-terminus, stimulates BRD4 enhancer recruitment, and BRD4 reciprocally stimulates the H3K4 demethylase activity of KDM5C. The cooperative action of KDM5C-associated BRD4 and H3K4me1/3 drives transcriptional activation of oncogenes. Pharmacological degradation of KDM5C reduces BRD4 chromatin enrichment and increases BET inhibitor efficacy. |
Co-immunoprecipitation (KDM5C–BRD4), ChIP-seq, RNA-seq, in vitro demethylase activity assay with BRD4, KDM5C KD/pharmacological degradation plus BETi combination in cell lines, organoids, and xenograft models |
Cancer research |
High |
38285760
|
| 2024 |
KDM5C regulates dendritic cell (DC) heterogeneity and function: KDM5C-deficient DCs show increased proportions of cDC2Bs and cDC1s (partly type-I-IFN and pDC dependent) and an increase in Ly6C− pDCs. Loss of KDM5C increases expression of inflammatory genes, alters lineage-specific gene expression, and impairs CD8 T cell responses to Listeria infection through decreased antigen presentation by cDC1s. |
DC-specific Kdm5c conditional KO mice, flow cytometry, RNA-seq, Listeria infection model with CD8 T cell response readout |
Cell reports |
High |
39052479
|
| 2024 |
KDM5C promotes global YY1 chromatin recruitment at promoters in a manner requiring an intact JmjC domain but independent of KDM5C histone demethylase activity. YY1 and KDM5C display a synthetic lethal interaction: dual depletion causes synergistic transcriptional repression of cell cycle and apoptosis genes and enhanced antitumor effect. |
Protein–protein interaction screen (pulldown), Co-immunoprecipitation (KDM5C–YY1), ChIP-seq for YY1 with KDM5C KD, RNA-seq, JmjC catalytic mutant analysis, siRNA double-KD viability assay |
EMBO reports |
High |
39433896
|
| 2025 |
In male bone marrow mesenchymal stromal cells (LepR-MSCs), lower Kdm5c expression leads to increased Cxcl12 expression, providing superior hematopoietic support. MSC-specific Kdm5c KO in female mice increases MSC quantity/function and hematopoietic engraftment to male levels, establishing a Kdm5c–Cxcl12 axis that drives sex differences in the bone marrow niche. |
MSC-specific Kdm5c conditional KO, single-cell RNA-seq, in vitro colony formation co-culture, in vivo BM transplantation, Cxcl12 expression analysis |
The Journal of clinical investigation |
High |
39836478
|
| 2016 |
Patient KDM5C mutations (Y751C, H514A, F642L but not D87G or A388P) suppress retinoic-acid-induced neurite growth in Neuro2a cells. The mutations prevent upregulation of neurite guidance genes including Ntng2, and reduced H3K4me3 at the Ntng2 promoter is observed. Ntng2 knockdown phenocopies KDM5C mutation-induced short neurites, and Ntng2 overexpression rescues the phenotype. |
Overexpression of patient-mutant KDM5C in Neuro2a cells, RNA-seq, ChIP for H3K4me3, Ntng2 siRNA knockdown and overexpression rescue, neurite length measurement |
Journal of molecular neuroscience |
Medium |
27421841
|
| 2023 |
KDM5C acts as a transcriptional repressor in AML through its demethylase activity at promoters of bivalently marked immature genes. KDM5C knockdown results in globally increased H3K4me3 levels and upregulation of bivalently marked immature genes, causing a de-differentiation phenotype that can be reversed by modulating downstream mediators. |
In vivo shRNA screen in Cebpa-mutant AML mouse model, human/murine AML cell line proliferation assays, ChIP-seq for H3K4me3, RNA-seq, de-differentiation phenotype rescue |
Leukemia |
High |
36631623
|
| 2025 |
KDM5C and KDM5D regulate overlapping but also distinct gene sets. KDM5C and KDM5D bind some overlapping genomic sites, but gene expression changes upon mutation are not directly caused by binding at affected gene promoters or enhancers, suggesting indirect mechanisms. Co-mutation of KDM5C rescues the tumor-suppressive phenotype of KDM5D mutation in male 786-O cells (xenograft model), consistent with co-occurrence of KDM5C mutation and Y chromosome loss in ccRCC. |
CRISPR-mediated mutation of KDM5C/KDM5D in ccRCC cell lines, RNA-seq, ChIP-seq, xenograft tumor formation assay |
Communications biology |
Medium |
39955388
|
| 2007 |
NMR resonance assignment of the BRIGHT/ARID DNA-binding domain from human KDM5C/JARID1C was completed, providing backbone and sidechain 1H, 13C, and 15N assignments as a foundation for structural studies of this domain. |
NMR spectroscopy (1H, 13C, 15N resonance assignment of isolated ARID domain) |
Biomolecular NMR assignments |
Low |
19636912
|
| 2024 |
Decreased JARID1C/KDM5C in diabetic plasmacytoid dendritic cells (pDCs) leads to increased IL-6 transcription, regulated upstream by an IFN-I/TYK2/JAK1,3 signaling pathway. KDM5C inhibition in non-diabetic pDCs skews naive CD4+ T cells toward a Th17 phenotype and increases IL-17A production. |
Human tissue and murine wound healing models, siRNA/inhibitor-based KDM5C loss-of-function in pDCs, IL-6 transcription assay, T cell co-culture Th17 skewing assay, pathway inhibitor experiments |
JCI insight |
Medium |
38912581
|
| 2022 |
KDM5C promotes female-specific alcohol-associated liver fibrosis by downregulating the aryl hydrocarbon receptor (AhR) pathway in hepatic stellate cells. Kdm5b/Kdm5c double knockdown in female (but not male) mice prevents fibrosis and upregulates Ahr, Arnt, and Aip; re-knockdown of Ahr restores profibrotic gene expression. |
AAV-shRNA knockdown of Kdm5c (and Kdm5b) in male and female mice, RNA-seq, H3K4me3 ChIP-seq, liver fibrosis histology, AhR epistasis experiment |
Hepatology communications |
Medium |
35468265
|
| 2025 |
KDM5C physically interacts with CRBN (cereblon) and stabilizes CRBN protein in an enzyme-activity-independent manner, thereby enhancing sensitivity of AML cells to lenalidomide. MLN4924 increases CRBN by elevating KDM5C levels. |
TurboID proximity labeling plus quantitative proteomics (interactome), co-immunoprecipitation (KDM5C–CRBN), KDM5C overexpression/KD with lenalidomide viability assay, KDM5C inhibitor treatment |
Cellular & molecular biology letters |
Medium |
39881283
|