CPEB1
gene geneOn this page
Also known as FLJ13203CPEB
Summary
CPEB1 (cytoplasmic polyadenylation element binding protein 1, HGNC:21744) is a protein-coding gene on chromosome 15q25.2, encoding Cytoplasmic polyadenylation element-binding protein 1 (Q9BZB8). Sequence-specific RNA-binding protein that regulates mRNA cytoplasmic polyadenylation and translation initiation during oocyte maturation, early development and at postsynapse sites of neurons.
This gene encodes a member of the cytoplasmic polyadenylation element binding protein family. This highly conserved protein binds to a specific RNA sequence, called the cytoplasmic polyadenylation element, found in the 3’ untranslated region of some mRNAs. The encoded protein functions in both the cytoplasm and the nucleus. It is involved in the regulation of mRNA translation, as well as processing of the 3’ untranslated region, and may play a role in cell proliferation and tumorigenesis. Alternative splicing results in multiple transcript variants.
Source: NCBI Gene 64506 — RefSeq curated summary.
At a glance
- GWAS associations: 9
- Clinical variants (ClinVar): 71 total
- MANE Select transcript:
NM_001365242
Identifiers
Gene identifiers
| Field | Value |
|---|---|
| HGNC ID | HGNC:21744 |
| Approved symbol | CPEB1 |
| Name | cytoplasmic polyadenylation element binding protein 1 |
| Location | 15q25.2 |
| Locus type | gene with protein product |
| Status | Approved |
| Aliases | FLJ13203, CPEB |
| Ensembl gene | ENSG00000214575 |
| Ensembl biotype | protein_coding |
| OMIM | 607342 |
| Entrez | 64506 |
Gene structure
Transcript identifiers
Ensembl transcripts: 23 — 18 protein_coding, 2 protein_coding_CDS_not_defined, 2 retained_intron, 1 nonsense_mediated_decay
ENST00000563519, ENST00000566716, ENST00000567678, ENST00000568994, ENST00000569257, ENST00000570205, ENST00000611031, ENST00000611163, ENST00000614918, ENST00000614977, ENST00000615198, ENST00000616959, ENST00000617462, ENST00000617522, ENST00000617958, ENST00000618449, ENST00000618698, ENST00000620182, ENST00000684509, ENST00000902789, ENST00000902790, ENST00000902791, ENST00000902792
RefSeq mRNA: 35 — MANE Select: NM_001365242
NM_001079533, NM_001079534, NM_001079535, NM_001288819, NM_001288820, NM_001365240, NM_001365241, NM_001365242, NM_001365243, NM_001365244, NM_001365245, NM_001365246, NM_001365247, NM_001365248, NM_001365249, NM_001365250, NM_001387061, NM_001387062, NM_001387063, NM_001387064, NM_001387065, NM_001387066, NM_001387067, NM_001387068, NM_001387069, NM_001387070, NM_001387071, NM_001387072, NM_001387073, NM_001387074, NM_001387075, NM_001387076, NM_001387077, NM_001387078, NM_030594
CCDS: CCDS42072, CCDS45329, CCDS45330, CCDS92050
Canonical transcript exons
ENST00000632305 — 0 exons
Expression profiles
Bgee: expression breadth ubiquitous, 132 present calls, max score 94.40.
FANTOM5 (CAGE): breadth broad, TPM avg 3.3180 / max 60.0314, expressed in 868 samples.
FANTOM5 promoters (11 alternative TSS)
| Promoter ID | TPM avg | Samples expressed |
|---|---|---|
| 151251 | 0.9726 | 466 |
| 151248 | 0.8639 | 370 |
| 151255 | 0.5796 | 202 |
| 151249 | 0.2288 | 131 |
| 151256 | 0.2091 | 98 |
| 151250 | 0.1671 | 90 |
| 151258 | 0.1047 | 46 |
| 151259 | 0.0820 | 41 |
| 151257 | 0.0609 | 28 |
| 151253 | 0.0316 | 17 |
Top tissues by expression
134 total, by Bgee expression score (0-100, higher = more expressed):
| Tissue | Anatomy ID | Expression score | Quality |
|---|---|---|---|
| male germ line stem cell (sensu Vertebrata) in testis | CL:0000089 ∩ UBERON:0000473 | 94.40 | gold quality |
| C1 segment of cervical spinal cord | UBERON:0006469 | 93.08 | gold quality |
| pituitary gland | UBERON:0000007 | 90.87 | gold quality |
| adenohypophysis | UBERON:0002196 | 90.82 | gold quality |
| Brodmann (1909) area 9 | UBERON:0013540 | 90.24 | gold quality |
| testis | UBERON:0000473 | 90.16 | gold quality |
| right testis | UBERON:0004534 | 89.98 | gold quality |
| corpus callosum | UBERON:0002336 | 89.94 | gold quality |
| superior frontal gyrus | UBERON:0002661 | 89.57 | gold quality |
| left testis | UBERON:0004533 | 89.30 | gold quality |
| substantia nigra | UBERON:0002038 | 89.22 | gold quality |
| hypothalamus | UBERON:0001898 | 89.17 | gold quality |
| prefrontal cortex | UBERON:0000451 | 88.85 | gold quality |
| frontal cortex | UBERON:0001870 | 88.67 | gold quality |
| dorsolateral prefrontal cortex | UBERON:0009834 | 88.37 | gold quality |
| right frontal lobe | UBERON:0002810 | 88.30 | gold quality |
| right hemisphere of cerebellum | UBERON:0014890 | 88.30 | gold quality |
| primary visual cortex | UBERON:0002436 | 88.26 | gold quality |
| cerebellar hemisphere | UBERON:0002245 | 87.95 | gold quality |
| cerebellar cortex | UBERON:0002129 | 87.90 | gold quality |
| cerebellum | UBERON:0002037 | 87.86 | gold quality |
| cerebral cortex | UBERON:0000956 | 87.62 | gold quality |
| Ammon’s horn | UBERON:0001954 | 87.62 | gold quality |
| primordial germ cell in gonad | CL:0000670 ∩ UBERON:0000991 | 86.87 | gold quality |
| anterior cingulate cortex | UBERON:0009835 | 86.65 | gold quality |
| brain | UBERON:0000955 | 86.64 | gold quality |
| temporal lobe | UBERON:0001871 | 83.88 | gold quality |
| amygdala | UBERON:0001876 | 83.82 | gold quality |
| nucleus accumbens | UBERON:0001882 | 83.29 | gold quality |
| putamen | UBERON:0001874 | 83.05 | gold quality |
Single-cell (SCXA)
Detected in 2 experiment(s), a significant marker in 0.
| Experiment | Marker? | Max mean expression |
|---|---|---|
| E-ANND-3 | no | 2.03 |
| E-MTAB-6379 | no | 0.40 |
Regulation
Is transcription factor: no
Upstream regulators (CollecTRI, top): EED, EZH2
miRNA regulators (miRDB)
164 targeting CPEB1, top 30 by miRDB confidence (max_score; target_count = how many genes the miRNA targets in total — lower means more specific):
| miRNA | Max score | Avg score | miRNA target_count |
|---|---|---|---|
| HSA-MIR-12118 | 100.00 | 65.88 | 1270 |
| HSA-MIR-3646 | 100.00 | 73.56 | 5283 |
| HSA-MIR-3613-3P | 100.00 | 76.36 | 7965 |
| HSA-MIR-5692A | 100.00 | 74.40 | 6850 |
| HSA-MIR-4500 | 99.99 | 72.72 | 2367 |
| HSA-MIR-6759-5P | 99.99 | 66.54 | 785 |
| HSA-MIR-548AW | 99.99 | 72.57 | 3559 |
| HSA-LET-7A-5P | 99.98 | 72.29 | 1790 |
| HSA-LET-7B-5P | 99.98 | 72.31 | 1790 |
| HSA-LET-7C-5P | 99.98 | 72.29 | 1790 |
| HSA-LET-7E-5P | 99.98 | 72.29 | 1790 |
| HSA-LET-7F-5P | 99.98 | 72.56 | 1784 |
| HSA-LET-7G-5P | 99.98 | 72.37 | 1784 |
| HSA-LET-7I-5P | 99.98 | 72.37 | 1788 |
| HSA-MIR-98-5P | 99.98 | 72.33 | 1787 |
| HSA-MIR-12136 | 99.98 | 72.81 | 5713 |
| HSA-MIR-6891-5P | 99.98 | 66.53 | 1372 |
| HSA-MIR-3173-3P | 99.98 | 66.49 | 1217 |
| HSA-MIR-607 | 99.97 | 73.62 | 5593 |
| HSA-MIR-6793-5P | 99.97 | 65.95 | 758 |
| HSA-MIR-548AJ-3P | 99.96 | 73.38 | 5345 |
| HSA-MIR-548X-3P | 99.96 | 73.38 | 5345 |
| HSA-LET-7D-5P | 99.96 | 71.76 | 1632 |
| HSA-MIR-4458 | 99.96 | 71.64 | 1650 |
| HSA-MIR-302E | 99.96 | 70.74 | 2669 |
| HSA-MIR-570-3P | 99.96 | 72.41 | 4910 |
| HSA-MIR-1468-3P | 99.96 | 72.74 | 3797 |
| HSA-MIR-96-5P | 99.95 | 72.80 | 2140 |
| HSA-MIR-548J-3P | 99.94 | 72.61 | 4881 |
| HSA-MIR-548AE-3P | 99.93 | 72.66 | 4867 |
Literature-anchored findings (GeneRIF, showing 35)
- CPEB1 has a role in compartmentalization of mRNA metabolism in the cytoplasm, between dcp1 bodies and stress granules (PMID:15731006)
- Results show that CPEB1 is continuously shuttling between nucleus and cytoplasm, and its export is controlled by two redundant motifs dependent on the nuclear export receptor Crm1. (PMID:18923137)
- CPEB controls senescence and bioenergetics in human cells at least in part by modulating p53 mRNA polyadenylation-induced translation (PMID:19141477)
- U6snRNA, GAPDH mRNA and CPEB1 mRNA levels may be useful as tumor markers for genital cancers. (PMID:19161537)
- The authors show that the human CPEB1 can repress the activity of the reporter construct containing the HPV-16 early sequences. This repression can be counteracted by a human cytoplasmic poly(A) polymerase, hGLD-2 fused to CPEB1. (PMID:20144904)
- The loss of function CPEB1 protein would enhance tumorigenesis by promoting the survival of rapidly dividing and hypermetabolic tumor cells as levels of available nutrients decline. (PMID:20339377)
- Gld4, a second non-canonical poly(A) polymerase, was found to regulate p53 mRNA polyadenylation/translation in a CPEB-dependent manner (PMID:21478871)
- The first evidence of CPEB1 involvement in GC is presented, along with the molecular mechanism underlying the regulation of its expression and its potential role in invasion and angiogenesis. (PMID:22052064)
- depleted of CPEB demonstrated that this protein directly regulates the translation of PTEN and Stat3 mRNAs. Our results show that CPEB regulated translation is a key process involved in insulin signaling (PMID:22253608)
- CPEB-mediated zonal occludens-1 mRNA localization is essential for tight-junction assembly and mammary epithelial cell polarity (PMID:22334078)
- poly(A) polymerase Gld2, deadenylase PARN, and translation inhibitory factor neuroguidin (Ngd) are components of a dendritic CPEB-associated polyadenylation apparatus (PMID:22727665)
- CPEB accelerates deadenylation and decay of the c-myc mRNA by recruiting the Tob-Caf1 complex. (PMID:23178487)
- results reveal a novel function of CPEB1 in mediating alternative 3’-UTR processing, which is coordinated with regulation of mRNA translation, through its dual nuclear and cytoplasmic functions (PMID:23434754)
- The structural similarity to other ZZ domains suggests that the CPEB1-ZZ domain recruits sumoylated proteins during assembly of the ribonucleoprotein complex prior to mRNA export from the nucleus. (PMID:23500490)
- Downregulation of CPEB1 induces senescence of glioma cells in a p53-dependent manner. (PMID:23788032)
- FMRP and CPEB1, an activator of translation, are present in neuronal dendrites, are predicted to bind many of the same mRNAs and may mediate a translational homeostasis that, when imbalanced, results in fragile X syndrome. (PMID:24141422)
- Results suggest that CPEB1-mediated translational control is essential for the differentiation of GSCs. (PMID:25216517)
- CPEB1, 2, and 4, are essential to successful mitotic cell division. (PMID:26398195)
- CPEB1 regulation of MMP9 mRNA expression mediates metastasis of breast cancer cells (PMID:26411364)
- Structural Analysis of the Pin1-CPEB1 interaction and its potential role in CPEB1 degradation has been described. (PMID:26456073)
- Identify a mechanism of VEGF overexpression in liver and mesentery that promotes pathologic, but not physiologic, angiogenesis, via sequential and nonredundant functions of CPEB1 and CPEB4. (PMID:26627607)
- Expression levels of CPEB4 and CPEB1 genes are correlated with overall survival in patients with glioma. (PMID:27000226)
- WEE1 is regulated at the translational level by CPEB1 and miR-15b in a coordinated and cell-cycle-dependent manner. (PMID:27027998)
- This mechanical catalysis makes possible a positive feedback loop that would help localize the formation of CPEB fibers to active synapse areas and mark those synapses for forming a long-term memory after the prion form is established. The functional role of the CPEB helical oligomers in this mechanism carries with it implications for targeting such species in neurodegenerative diseases. (PMID:27091989)
- Upon binding to p27(Kip1) 3’UTR, CPEB1 promotes elongation of poly-A tail and the subsequent translation of p27(Kip1) mRNA. This leads to higher levels of p27(Kip1) in the cell, in turn significantly inhibiting cell proliferation, and confers to CPEB1 a potential value as a tumor suppressor in Glioblastoma. (PMID:27142352)
- The host RNA-binding protein CPEB1 was highly induced after cytomegalovirus infection and ectopic expression of CPEB1 in non-infected cells recapitulated infection-related post-transcriptional changes. CPEB1 was also required for poly(A)-tail lengthening of viral RNAs important for productive infection. (PMID:27775709)
- These findings indicated that the overexpression of miR4543p inhibited cell proliferation, migration and invasion by downregulating CPEB1. (PMID:30106109)
- study identifies CPEB1 as a potential regulator of disease progression of Posttraumatic Ankle Osteoarthritis (PMID:30411210)
- Study revealed that CPEB1 depletion might play an anti-inflammatory and antiapoptotic role in Ox-LDL-induced apoptosis and inflammation though SIRT1/LOX-1 signalling pathway. (PMID:31521690)
- CPEB1 and CPEB4 are involved in the regulation of the TAK1 and Smad signalings in human macrophages and dermal fibroblasts (PMID:32113875)
- CPEB1 deletion is not a common explanation for premature ovarian insufficiency in a Chinese cohort. (PMID:32354341)
- Estrogen promotes increased breast cancer cell proliferation and migration through downregulation of CPEB1 expression. (PMID:33162033)
- DNA hypermethylation contributes to colorectal cancer metastasis by regulating the binding of CEBPB and TFCP2 to the CPEB1 promoter. (PMID:33892791)
- CPEB alteration and aberrant transcriptome-polyadenylation lead to a treatable SLC19A3 deficiency in Huntington’s disease. (PMID:34586830)
- CPEB1 Controls NRF2 Proteostasis and Ferroptosis Susceptibility in Pancreatic Cancer. (PMID:38904009)
Cross-species orthologs
6 orthologs
| Organism | Symbol | Gene ID |
|---|---|---|
| danio_rerio | cpeb1b | ENSDARG00000008454 |
| danio_rerio | cpeb1a | ENSDARG00000045932 |
| mus_musculus | Cpeb1 | ENSMUSG00000025586 |
| rattus_norvegicus | Cpeb1 | ENSRNOG00000019161 |
| drosophila_melanogaster | orb | FBGN0004882 |
| caenorhabditis_elegans | cpb-3 | WBGENE00000772 |
Paralogs (3): CPEB3 (ENSG00000107864), CPEB4 (ENSG00000113742), CPEB2 (ENSG00000137449)
Protein
Protein identifiers
Cytoplasmic polyadenylation element-binding protein 1 — Q9BZB8 (reviewed: Q9BZB8)
All UniProt accessions (9): A0A024R214, A0A087WUQ9, A0A087WVR7, A0A087WXG7, A0A087X171, Q9BZB8, H3BNX1, H3BPD6, H3BTE4
UniProt curated annotations — full annotation on UniProt →
Function. Sequence-specific RNA-binding protein that regulates mRNA cytoplasmic polyadenylation and translation initiation during oocyte maturation, early development and at postsynapse sites of neurons. Binds to the cytoplasmic polyadenylation element (CPE), an uridine-rich sequence element (consensus sequence 5’-UUUUUAU-3’) within the mRNA 3’-UTR. RNA binding results in a clear conformational change analogous to the Venus fly trap mechanism. In absence of phosphorylation and in association with TACC3 is also involved as a repressor of translation of CPE-containing mRNA; a repression that is relieved by phosphorylation or degradation. Involved in the transport of CPE-containing mRNA to dendrites; those mRNAs may be transported to dendrites in a translationally dormant form and translationally activated at synapses. Its interaction with APLP1 promotes local CPE-containing mRNA polyadenylation and translation activation. Induces the assembly of stress granules in the absence of stress. Required for cell cycle progression, specifically for prophase entry.
Subunit / interactions. Interacts with kinesin, dynein, APLP1, APLP2, TENT2/GLD2 and APP. Both phosphorylated and non phosphorylated forms interact with APLP1. Interacts with TENT4B; the interaction is required for TENT4B-mediated translational control.
Subcellular location. Cytoplasm. Nucleus. P-body. Cytoplasmic granule. Synapse. Membrane. Postsynaptic density. Cell projection. Dendrite.
Tissue specificity. Isoform 1 is expressed in immature oocytes, ovary, brain and heart. Isoform 2 is expressed in brain and heart. Isoform 3 and isoform 4 are expressed in brain. Expressed in breast tumors and several tumor cell lines.
Post-translational modifications. Phosphorylated on serine/threonine residues by AURKA within positions 166 and 197. Phosphorylation and dephosphorylation on Thr-172 regulates cytoplasmic polyadenylation and translation of CPE-containing mRNAs. Phosphorylation on Thr-172 by AURKA and CAMK2A activates CPEB1. Phosphorylation on Thr-172 may be promoted by APLP1. Phosphorylation increases binding to RNA.
Domain organisation. The 2 RRM domains and the C-terminal region mediate interaction with CPE-containing RNA. The interdomain linker (411-429) acts as a hinge to fix the relative orientation of the 2 RRMs. The ZZ domain (509-566) coordinates 2 Zn ions and is probably implicated in mediating interactions with other proteins in addition to increasing the affinity of the RRMs for the CPEs. A continuous hydrophobic interface is formed between the 2 RRMs.
Similarity. Belongs to the RRM CPEB family.
Isoforms (4)
| UniProt ID | Names | Canonical? |
|---|---|---|
| Q9BZB8-1 | 1, hCPEB long, hCPEBg | yes |
| Q9BZB8-2 | 2, hCPEB short, hCPEBs | |
| Q9BZB8-3 | 3 | |
| Q9BZB8-4 | 4 |
RefSeq proteins (35): NP_001073001, NP_001073002, NP_001073003, NP_001275748, NP_001275749, NP_001352169, NP_001352170, NP_001352171, NP_001352172, NP_001352173, NP_001352174, NP_001352175, NP_001352176, NP_001352177, NP_001352178, NP_001352179, NP_001373990, NP_001373991, NP_001373992, NP_001373993, NP_001373994, NP_001373995, NP_001373996, NP_001373997, NP_001373998, NP_001373999, NP_001374000, NP_001374001, NP_001374002, NP_001374003, NP_001374004, NP_001374005, NP_001374006, NP_001374007, NP_085097 (=MANE)
Domains & families (InterPro)
| ID | Name | Type |
|---|---|---|
| IPR000504 | RRM_dom | Domain |
| IPR012677 | Nucleotide-bd_a/b_plait_sf | Homologous_superfamily |
| IPR032292 | CEBP1_N | Domain |
| IPR032296 | CEBP_ZZ | Domain |
| IPR034819 | CPEB | Family |
| IPR034977 | CPEB1_RRM1 | Domain |
| IPR035979 | RBD_domain_sf | Homologous_superfamily |
| IPR038446 | CEBP_ZZ_sf | Homologous_superfamily |
Pfam: PF16366, PF16367, PF16368
UniProt features (58 total): strand 19, binding site 8, helix 8, mutagenesis site 4, turn 4, splice variant 3, domain 2, modified residue 2, sequence variant 2, region of interest 2, chain 1, site 1, sequence conflict 1, compositionally biased region 1
Structure
Experimental structures (PDB)
5 structures.
| PDB | Method | Resolution (Å) |
|---|---|---|
| 2M13 | SOLUTION NMR | |
| 2MKE | SOLUTION NMR | |
| 2MKH | SOLUTION NMR | |
| 2MKK | SOLUTION NMR | |
| 2N1O | SOLUTION NMR |
Predicted structure (AlphaFold)
| Model | pLDDT | Fraction very-high |
|---|---|---|
| AF-Q9BZB8-F1 | 66.05 | 0.38 |
Functional residue map
Curated UniProt residues grouped by drug-discovery relevance — catalytic, ligand-binding, modification, and mutation-validated positions. Source: UniProtKB sequence features.
Catalytic / active sites (1): 411 (important for the positioning of rrm1 relative to rrm2)
Ligand- & substrate-binding residues (8): 537; 540; 545; 553; 515; 518; 527; 532
Post-translational modifications (2): 43, 172
Mutagenesis-validated functional residues (4):
| Position | Phenotype |
|---|---|
| 172 | does not affect its localization. |
| 314 | abolishes stress granule assembly and correct localization in dcp1 bodies. |
| 545 | abolishes stress granule assembly and correct localization in dcp1 bodies. |
Function
Pathways and Gene Ontology
Reactome pathways
0 pathways
MSigDB gene sets: 248 (showing top):
GOBP_CYTOPLASMIC_TRANSLATION, GOBP_RESPONSE_TO_NITROGEN_COMPOUND, GOBP_RESPONSE_TO_ACID_CHEMICAL, GAUSSMANN_MLL_AF4_FUSION_TARGETS_G_DN, KEGG_DORSO_VENTRAL_AXIS_FORMATION, GOBP_CELLULAR_RESPONSE_TO_ACID_CHEMICAL, GOBP_CELLULAR_RESPONSE_TO_OXYGEN_CONTAINING_COMPOUND, MOLENAAR_TARGETS_OF_CCND1_AND_CDK4_UP, GOBP_CELLULAR_RESPONSE_TO_INSULIN_STIMULUS, GOBP_NEGATIVE_REGULATION_OF_TRANSLATION, GOBP_TRANSLATION, GTGCCTT_MIR506, GOBP_POST_TRANSCRIPTIONAL_REGULATION_OF_GENE_EXPRESSION, AGCGCTT_MIR518F_MIR518E_MIR518A, GOMF_TRANSLATION_REGULATOR_ACTIVITY
GO Biological Process (9): mRNA processing (GO:0006397), regulation of mRNA 3’-end processing (GO:0031440), cellular response to insulin stimulus (GO:0032869), cellular response to amino acid stimulus (GO:0071230), cellular response to hypoxia (GO:0071456), negative regulation of cytoplasmic translation (GO:2000766), translation (GO:0006412), regulation of translation (GO:0006417), negative regulation of translation (GO:0017148)
GO Molecular Function (10): mRNA regulatory element binding translation repressor activity (GO:0000900), mRNA 3’-UTR binding (GO:0003730), translation factor activity, RNA binding (GO:0008135), mRNA 3’-UTR AU-rich region binding (GO:0035925), ribosome binding (GO:0043022), metal ion binding (GO:0046872), nucleic acid binding (GO:0003676), RNA binding (GO:0003723), protein binding (GO:0005515), translation regulator activity (GO:0045182)
GO Cellular Component (13): P-body (GO:0000932), nucleus (GO:0005634), nucleoplasm (GO:0005654), cytoplasm (GO:0005737), cytosol (GO:0005829), postsynaptic density (GO:0014069), membrane (GO:0016020), dendrite (GO:0030425), neuron projection (GO:0043005), synapse (GO:0045202), ribonucleoprotein complex (GO:1990904), cytoplasmic ribonucleoprotein granule (GO:0036464), cell projection (GO:0042995)
GO top-level categories
Rollup of top GO terms by namespace:
| Category | Terms |
|---|---|
| cellular anatomical structure | 5 |
| translation | 3 |
| regulation of translation | 2 |
| mRNA binding | 2 |
| binding | 2 |
| cytoplasm | 2 |
| RNA processing | 1 |
| mRNA metabolic process | 1 |
| mRNA 3’-end processing | 1 |
| regulation of mRNA processing | 1 |
| response to insulin | 1 |
| cellular response to peptide hormone stimulus | 1 |
| response to amino acid | 1 |
| cellular response to acid chemical | 1 |
| response to hypoxia | 1 |
| cellular response to stress | 1 |
| cellular response to decreased oxygen levels | 1 |
| cytoplasmic translation | 1 |
| negative regulation of translation | 1 |
| regulation of cytoplasmic translation | 1 |
| peptidyltransferase activity | 1 |
| translational initiation | 1 |
| translational elongation | 1 |
| translational termination | 1 |
| macromolecule biosynthetic process | 1 |
| protein metabolic process | 1 |
| protein biosynthetic process | 1 |
| post-transcriptional regulation of gene expression | 1 |
| regulation of protein metabolic process | 1 |
| negative regulation of gene expression | 1 |
| negative regulation of protein metabolic process | 1 |
| translation repressor activity | 1 |
| RNA binding | 1 |
| translation factor activity | 1 |
| mRNA 3’-UTR binding | 1 |
| ribonucleoprotein complex binding | 1 |
| cation binding | 1 |
| nucleic acid binding | 1 |
| molecular_function | 1 |
| cytoplasmic ribonucleoprotein granule | 1 |
Protein interactions and networks
STRING
1540 interactions, top by confidence (×1000):
| Protein A | Protein B | Partner UniProt | Score |
|---|---|---|---|
| CPEB1 | TENT2 | Q6PIY7 | 981 |
| CPEB1 | SYMPK | Q92797 | 961 |
| CPEB1 | NGDN | Q8NEJ9 | 961 |
| CPEB1 | EIF4E | P06730 | 943 |
| CPEB1 | DDX6 | P26196 | 933 |
| CPEB1 | PARN | O95453 | 930 |
| CPEB1 | FMR1 | Q06787 | 910 |
| CPEB1 | FXR1 | P51114 | 889 |
| CPEB1 | FXR2 | P51116 | 882 |
| CPEB1 | TACC3 | Q9Y6A5 | 867 |
| CPEB1 | PAPOLA | P51003 | 862 |
| CPEB1 | PAPOLB | Q9NRJ5 | 862 |
| CPEB1 | PAPOLG | Q9BWT3 | 861 |
| CPEB1 | AURKC | Q9UQB9 | 782 |
| CPEB1 | PABPC1L | Q4VXU2 | 762 |
IntAct
10 interactions, top by confidence:
| A | B | Type | Score |
|---|---|---|---|
| Msi1 | CPEB1 | psi-mi:“MI:0915”(physical association) | 0.400 |
| CPEB1 | CPEB1 | psi-mi:“MI:0915”(physical association) | 0.400 |
| CPEB1 | CPEB4 | psi-mi:“MI:0915”(physical association) | 0.400 |
| CPEB1 | USP20 | psi-mi:“MI:0915”(physical association) | 0.400 |
| SLC16A7 | CPEB1 | psi-mi:“MI:0915”(physical association) | 0.370 |
| CPEB1 | psi-mi:“MI:0914”(association) | 0.350 | |
| CPEB1 | APBA3 | psi-mi:“MI:0914”(association) | 0.350 |
| CPEB1 | CREB1 | psi-mi:“MI:0914”(association) | 0.350 |
| CPEB1 | CNOT1 | psi-mi:“MI:2364”(proximity) | 0.270 |
BioGRID (179): CPEB1 (Reconstituted Complex), CPEB1 (Co-crystal Structure), CPEB1 (Reconstituted Complex), SYMPK (Affinity Capture-MS), METAP1D (Affinity Capture-MS), GBP5 (Affinity Capture-MS), APBA3 (Affinity Capture-MS), CSTF2T (Affinity Capture-MS), GAN (Affinity Capture-MS), NMD3 (Affinity Capture-MS), CSTF2 (Affinity Capture-MS), CPEB1 (Affinity Capture-Western), CPEB1 (Proximity Label-MS), CPEB1 (Negative Genetic), APBA3 (Affinity Capture-MS)
ESM2 similar proteins: A0JPN4, A6QQJ8, B9EJA2, D4A039, E9Q0S6, E9Q2Z1, F1R4C4, O54714, O54967, O70260, O70405, O75385, O75925, O75928, O88907, O94983, P0C279, P51449, P51450, P56225, P70166, Q07912, Q07E28, Q17R13, Q1L981, Q5D1E7, Q5D1E8, Q5JV73, Q5U2X5, Q6AZ28, Q6P1H6, Q6P2E9, Q6ZQM0, Q70CQ4, Q7TP65, Q80Y50, Q86UW9, Q8C008, Q8C5D8, Q8CIN9
Diamond homologs: O01835, P0C279, P70166, Q03571, Q17RY0, Q28CH2, Q52KN7, Q5R733, Q6E3C9, Q6E3D2, Q6E3D4, Q6E3D5, Q7SXN4, Q7TN98, Q7TN99, Q7Z5Q1, Q812E0, Q8NE35, Q91572, Q967R6, Q9BZB8, Q9DED5, Q9VSR3, Q9YGX5, Q6E3C7, Q6E3D0, Q6E3F0, O14979, Q18317, Q3SWU3, Q5ZI72, Q6E3F2, Q6E3F3, Q9Z130, F4JHI7, Q96EP5, Q98SJ2, Q9JII5, Q9SJA6, P48809
SIGNOR signaling
1 interactions.
| A | Effect | B | Mechanism |
|---|---|---|---|
| CDK1 | “up-regulates activity” | CPEB1 | phosphorylation |
Disease & clinical
Clinical variants and AI predictions
ClinVar
71 variants total. Per-class counts are floors (≥ shown; pagination cap):
| Classification | Count (floor) |
|---|---|
| Pathogenic | 0 |
| Likely pathogenic | 0 |
| Uncertain significance | 58 |
| Likely benign | 1 |
| Benign | 1 |
Top pathogenic / likely-pathogenic (0)
SpliceAI
3567 predictions. Top by Δscore:
| Variant | Effect | Δscore |
|---|---|---|
| 15:82544504:C:CA | donor_gain | 1.0000 |
| 15:82547138:CTCA:C | donor_loss | 1.0000 |
| 15:82547140:CA:C | donor_loss | 1.0000 |
| 15:82547141:A:AC | donor_gain | 1.0000 |
| 15:82547141:AC:A | donor_gain | 1.0000 |
| 15:82547141:ACCTT:A | donor_gain | 1.0000 |
| 15:82547142:C:CA | donor_loss | 1.0000 |
| 15:82547142:C:CC | donor_gain | 1.0000 |
| 15:82547142:C:CT | donor_loss | 1.0000 |
| 15:82547142:CC:C | donor_gain | 1.0000 |
| 15:82547142:CCTT:C | donor_gain | 1.0000 |
| 15:82547142:CCTTC:C | donor_gain | 1.0000 |
| 15:82547235:AACCT:A | acceptor_loss | 1.0000 |
| 15:82547236:ACCTA:A | acceptor_loss | 1.0000 |
| 15:82547237:CCTA:C | acceptor_loss | 1.0000 |
| 15:82547237:CCTAG:C | acceptor_loss | 1.0000 |
| 15:82547238:CT:C | acceptor_loss | 1.0000 |
| 15:82547238:CTA:C | acceptor_loss | 1.0000 |
| 15:82547239:T:C | acceptor_loss | 1.0000 |
| 15:82549454:ACTTA:A | donor_loss | 1.0000 |
| 15:82549456:TTA:T | donor_loss | 1.0000 |
| 15:82549457:TA:T | donor_loss | 1.0000 |
| 15:82549458:A:AT | donor_loss | 1.0000 |
| 15:82549458:A:C | donor_loss | 1.0000 |
| 15:82549459:C:CA | donor_loss | 1.0000 |
| 15:82549480:T:C | donor_gain | 1.0000 |
| 15:82552476:TCACC:T | donor_loss | 1.0000 |
| 15:82552477:CACC:C | donor_loss | 1.0000 |
| 15:82552477:CACCT:C | donor_loss | 1.0000 |
| 15:82552478:A:AC | donor_gain | 1.0000 |
AlphaMissense
0 scored. Top likely-pathogenic:
dbSNP variants (sampled 300 via entrez): RS1000037596 (15:82601672 G>A), RS1000060566 (15:82566097 C>T), RS1000069367 (15:82612152 G>A), RS1000078760 (15:82559307 G>C), RS1000110534 (15:82576751 G>A,C), RS1000176807 (15:82607572 G>A,T), RS1000179107 (15:82616988 A>G,T), RS1000180361 (15:82611887 TA>T,TAA), RS1000243540 (15:82633008 C>T), RS1000268572 (15:82581933 T>C), RS1000277808 (15:82636982 A>G), RS1000352568 (15:82576904 A>T), RS1000404836 (15:82581711 C>T), RS1000426914 (15:82601961 C>A), RS1000427245 (15:82548922 T>A,C)
Disease associations
OMIM: gene MIM:607342 | disease phenotypes:
GenCC curated gene-disease
Mondo (1): primary amenorrhea (MONDO:1060208)
Orphanet (0):
HPO phenotypes
0 total (0 of 0 shown, HPO-id order):
GWAS associations
9 associations (top):
| Study | Trait | p-value |
|---|---|---|
| GCST003979_7 | Excessive daytime sleepiness | 2.000000e-07 |
| GCST004946_69 | Schizophrenia | 3.000000e-08 |
| GCST006269_788 | General cognitive ability | 3.000000e-09 |
| GCST007201_195 | Schizophrenia | 9.000000e-09 |
| GCST007201_329 | Schizophrenia | 5.000000e-08 |
| GCST007277_21 | Tourette syndrome | 7.000000e-06 |
| GCST008595_96 | Cognitive ability, years of educational attainment or schizophrenia (pleiotropy) | 4.000000e-10 |
| GCST011494_67 | Daytime nap | 2.000000e-13 |
| GCST90000047_256 | Age at first sexual intercourse | 4.000000e-10 |
EFO canonical traits (5, from GWAS)
| EFO ID | Trait name |
|---|---|
| EFO:0007875 | excessive daytime sleepiness measurement |
| EFO:0004337 | intelligence |
| EFO:0004784 | self reported educational attainment |
| EFO:0007828 | daytime rest measurement |
| EFO:0009749 | age at first sexual intercourse measurement |
Drugs & pharmacology
Drug and pharmacology data
Is drug target: no
PharmGKB: 1 entry (VIP=true, CPIC=false)
CTD chemical–gene interactions
26 total (human), top 26 by PubMed support.
| Chemical | Actions (top 5) | PubMed papers |
|---|---|---|
| bisphenol A | decreases methylation, increases expression | 4 |
| sodium arsenite | increases abundance, increases expression | 2 |
| entinostat | increases expression, affects cotreatment | 2 |
| Decitabine | affects expression | 2 |
| Cisplatin | affects expression, decreases expression | 2 |
| Valproic Acid | increases expression, increases methylation | 2 |
| methylmercuric chloride | increases expression | 1 |
| trichostatin A | increases expression | 1 |
| CGP 52608 | affects binding, increases reaction | 1 |
| 4-(5-benzo(1,3)dioxol-5-yl-4-pyridin-2-yl-1H-imidazol-2-yl)benzamide | affects cotreatment, increases expression | 1 |
| abrine | increases expression | 1 |
| dorsomorphin | affects cotreatment, increases expression | 1 |
| Temozolomide | decreases expression | 1 |
| Sunitinib | increases expression | 1 |
| Arsenic Trioxide | increases expression | 1 |
| Air Pollutants | decreases expression, increases abundance | 1 |
| Arsenic | increases abundance, increases expression | 1 |
| Atrazine | increases expression | 1 |
| Benzo(a)pyrene | affects methylation, increases methylation | 1 |
| Rotenone | increases expression | 1 |
| Thiram | increases expression | 1 |
| Antirheumatic Agents | increases expression | 1 |
| Okadaic Acid | increases expression | 1 |
| Copper Sulfate | increases expression | 1 |
| Acrylamide | increases expression | 1 |
| Particulate Matter | decreases expression, increases abundance | 1 |
Cellosaurus cell lines
1 cell lines: 1 cancer cell line
First 10 cell lines (id-ordered, not curated):
| Cellosaurus | Name | Category | Sex |
|---|---|---|---|
| CVCL_F1PQ | HyCyte HeLa KO-hCPEB1 | Cancer cell line | Female |
Clinical trials (associated diseases)
1 trials via MONDO — disease-level, not drug-specific.
| Trial | Phase | Status | Title |
|---|---|---|---|
| NCT07164248 | Not specified | COMPLETED | Evaluation of Bone Mineral Density Indications and Outcomes in Female Adolescents: Implications for Early Detection of Osteopenia/Osteoporosis and Gynecologic Practice |
Related Atlas pages
- Disease cohort memberships (association, not causation — diseases whose associated-gene cohort lists this gene; a subset are also under Associated diseases): primary amenorrhea