About Enhancer

Enhancer ID: E_01_0473
Species: human
Position : chr17:57998205-58000205
Biosample name:
Experiment class : High+Lowthroughput
Enhancer type: Enhancer
Disease: Tumour
Pubmed ID:  29769310
Enhancer experiment: gene knockdown,RT-PCR,qPCR,RNA-immunoprecipitation (RNA-IP) experiment,RNC-mRNA,Splicing luciferase reporter assay,RNA-seq,Gene expression analysis,Chromatin immunoprecipitation assay (ChIP)
Enhancer experiment description: Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.

About Target gene

Target gene : SRSF1,ADAR,TGFBR1
Strong evidence: qRT-PCR,qPCR,ChIP,3C
Less strong evidence: RNA-Seq
Target gene experiment description: Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.

About TF

TF name : CCND1
TF experiment: gene knockdown,RT-PCR,qPCR,RNA-immunoprecipitation (RNA-IP) experiment,RNC-mRNA,Splicing luciferase reporter assay,RNA-seq,Gene expression analysis,Chromatin immunoprecipitation assay (ChIP)
TF experiment description: Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.;Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.

About Function

Enhancer function : Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.
Enhancer function experiment: Immunohistochemical staining
Enhancer function
experiment description:
Gene expression profiling by RNA-seq revealed that E12A acts distinctly from HNRPLL and regulates a set of growth-related genes, such as cyclin CCND1 and growth factor receptor TGFBR1 Accordingly, silencing E12A expression leads to impaired clonogenic ability and enhanced sensitivity to doxorubicin, thus highlighting the significance of this alternative isoform in tumor cell survival. In summary, we present the interplay of RNA editing and splicing as a regulatory mechanism of gene expression and also its physiological relevance. These findings extend our understanding of transcriptional dynamics and provide a mechanistic explanation to the link of RNA editors to tumorigenesis.

About SNP

SNP ID: --

Upstream Pathway Annotation of TF

GeneName Pathway Name Source Gene Number
CCND1 AndrogenReceptor netpath 167
CCND1 AP-1 transcription factor network pid 71
CCND1 ATF-2 transcription factor network pid 59
CCND1 C-MYB transcription factor network pid 87
CCND1 Coregulation of Androgen receptor activity pid 61
CCND1 Cyclin D associated events in G1 reactome 38
CCND1 E-cadherin signaling in the nascent adherens junction pid 37
CCND1 FOXA1 transcription factor network pid 45
CCND1 FOXM1 transcription factor network pid 43
CCND1 Integrin-linked kinase signaling pid 46
CCND1 Neurotrophic factor-mediated Trk receptor signaling pid 63
CCND1 Notch signaling pathway pid 58
CCND1 Pre-NOTCH Transcription and Translation reactome 29
CCND1 Presenilin action in Notch and Wnt signaling pid 46
CCND1 Prolactin netpath 105
CCND1 PTK6 Regulates Cell Cycle reactome 6
CCND1 Regulation of nuclear beta catenin signaling and target gene transcription pid 80
CCND1 Regulation of retinoblastoma protein pid 67
CCND1 Regulation of Telomerase pid 70
CCND1 RMTs methylate histone arginines reactome 75
CCND1 SCF(Skp2)-mediated degradation of p27/p21 reactome 59
CCND1 Signaling events mediated by focal adhesion kinase pid 63
CCND1 Signaling mediated by p38-gamma and p38-delta pid 11
CCND1 TGF_beta_Receptor netpath 220
CCND1 Trk receptor signaling mediated by PI3K and PLC-gamma pid 36
CCND1 Ubiquitin-dependent degradation of Cyclin D1 reactome 50
CCND1 Validated nuclear estrogen receptor alpha network pid 65
CCND1 Validated targets of C-MYC transcriptional repression pid 63
CCND1 Validated transcriptional targets of AP1 family members Fra1 and Fra2 pid 37
CCND1 Wnt netpath 118
CCND1 Cell cycle kegg 124
CCND1 p53 signaling pathway kegg 66
CCND1 Wnt signaling pathway kegg 135
CCND1 Focal adhesion kegg 197
CCND1 Jak-STAT signaling pathway kegg 149
CCND1 Pathways in cancer kegg 321
CCND1 Colorectal cancer kegg 63
CCND1 Pancreatic cancer kegg 70
CCND1 Endometrial cancer kegg 52
CCND1 Glioma kegg 65
CCND1 Prostate cancer kegg 85
CCND1 Thyroid cancer kegg 25
CCND1 Melanoma kegg 69
CCND1 Bladder cancer kegg 38
CCND1 Chronic myeloid leukemia kegg 69
CCND1 Acute myeloid leukemia kegg 53
CCND1 Small cell lung cancer kegg 83
CCND1 Non-small cell lung cancer kegg 54
CCND1 Viral myocarditis kegg 66
CCND1 Hs_Cytokines_and_Inflammatory_Response_WP530_79331 wikipathways 21
CCND1 Hs_miRNAs_involved_in_DNA_damage_response_WP1545_84697 wikipathways 30
CCND1 Hs_MAPK_Signaling_Pathway_WP382_79951 wikipathways 58
CCND1 Hs_Integrated_Breast_Cancer_Pathway_WP1984_82941 wikipathways 122
CCND1 Hs_Copper_homeostasis_WP3286_89205 wikipathways 15
CCND1 Hs_Bladder_Cancer_WP2828_89143 wikipathways 17
CCND1 Hs_IL-7_Signaling_Pathway_WP205_89854 wikipathways 16

Enhancer associated network

The number on yellow line represents the distance between enhancer and target gene

Expression of target genes for the enhancer


Enhancer associated SNPs