Detail information of AT4G10570_circ_g.6


General Information
CircRNA Name AT4G10570_circ_g.6
ID in PlantcircBase ath_circ_030225
Alias AT4G10570_C2
Organism Arabidpsis thaliana
Position chr4: 6525645-6527634  JBrowse»
Reference genome TAIR10.38
Type   e-circRNA
Identification method PcircRNA_finder, CIRI2
Parent gene AT4G10570
Parent gene annotation Ubiquitin carboxyl-terminal hydrolase 10
Parent gene strand -
Alternative splicing AT4G10570_circ_g.1 4_circ_ag.2 4_circ_ag.3 AT4G10570_circ_g.4 4_circ_ag.5 4_circ_ag.7 4_circ_ag.8 4_circ_ag.9 4_circ_ag.10 AT4G10570_circ_g.11 AT4G10570_circ_g.12 AT4G10570_circ_g.13 4_circ_ag.14 AT4G10570_circ_g.15 AT4G10570_circ_g.16 4_circ_ag.17 4_circ_ag.18 AT4G10570_circ_g.19 AT4G10570_circ_g.20 4_circ_ag.21 4_circ_ag.22 4_circ_ag.23 AT4G10590_circ_g.1 AT4G10590_circ_g.2 AT4G10590_circ_g.3 AT4G10590_circ_g.4
Support reads 7
Tissues whole_plant, leaf
Exon boundary   Yes-Yes
Splicing signals   CT-AC
Number of exons covered AT4G10570.1:7
Experimental Information
Sanger sequencing for BSS   NA
PCR primers for BSS    NA
Sanger sequencing for FL    NA
PCR primers for FL    NA
Sequences
Splice junction sequence   ATGGTTATCAATCGGTCCAGGCCTCGGAGCTTCCGAAGACTCTCCAGTTGAACATTCATTAGCC
GAATTCTCAACATATTCCTGCCAGCTTGTATACCACttgacagacgtcaactattacagaatca
tttcgggccttatgataattccaaagctcttcagcaacttcatcatccggacgactgtcagaat
ctttaagt
Assembled circRNA sequence   Yes
Full-length trsnacripts Transcript length: 1207
Transcript exons: 6525645-6525815,6525893-6526033,6526119-6526496,6526748-
6526846,6526968-6527027,6527174-6527318,6527422-6527634
TTGACAGACGTCAACTATTACAGAATCATTTCGGGCCTTATGATAATTCCAAAGCTCTTCAGCA
ACTTCATCATCCGGACGACTGTCAGAATCTTTAAGTTCGATGTAAGGTTTTCGTTTGACCTTAT
TCAAATCTTCATGCAGCCCATCTAATAAGAAAGCAAGCAGTTCTTGAGAATCATGCTGATTGTA
ACCACTAAACTGTGGGGCAAATCTAGCCAATTTCGTCTTAAAAGCGCGTGGTGCAACTGCATTC
CTTCCTGATGACCATAATTTCTTCAACAAATCACCAAACGCGATAGCAAGCTCACCACACATTC
CCAAAGGATTATCTCTATTTATGTCGTCACTGTAATCTTGCAAGAAGTATTCAACAATTGGAGG
TGTGTGGGCCAAACACTGAAGAGCGCTATTCATAAAGCAGGTATTTCCCAAATTACTCAATCCT
GCTAATCCTCCCTTTTCTCCTTTTCCAAGAATACTCAAAGAATCTCTGCCGTCGTCTTCAGAAG
TTATTCTCGGAAAGAGACTAAAGTTGGACGTAGTGGAATGACCATTTGATAGGGTAGGCCCCCC
AGCAATTGTAACAATCGACCTTGAAGGTTCCAGAGGTACCAGAGCTAACTCATTTCCTGTCGAG
CTCATAGCAGATTGAGAGGAGGAAGACAACCCATCAACTTCAACAAGAATATCTTGGTCCATAT
GAAGGCTTGACTCTTCCAGGCTCTTGTAAGATAAAGGATCCAACAGTCCGTTTTTCCTCTTATC
GAAGTAATCCCAGATATGAGCCTTTTCTTGCGGTACCCCTGTCATAGCACAAACCTTCTCATAA
AGTTCCCTTATAGAGGCCTGTTTTCCCAACCGTATTACAGTTCTACTTTCATCTCGTCCGTCTG
TCAACATAAGGCAGAGTGGATAAACCTCTACACTATAACTCCTTGTATAAAAGCCTTGACAGAT
CAACTTCCTTTCTATCGGAGGACCTCCGCTATACCATTCAACAAGTCTTTTCCAAACTTGTTTA
GGAACTAAAACGTAGTCCTCCCCTTCCACCAGCAATCTACGAAGTTGTGGATCATTAATGTCGC
TATCACTTTCGATAATATCATGGTTATCAATCGGTCCAGGCCTCGGAGCTTCCGAAGACTCTCC
AGTTGAACATTCATTAGCCGAATTCTCAACATATTCCTGCCAGCTTGTATACCAC

Genomic sequence TTGACAGACGTCAACTATTACAGAATCATTTCGGGCCTTATGATAATTCCAAAGCTCTTCAGCA
ACTTCATCATCCGGACGACTGTCAGAATCTTTAAGTTCGATGTAAGGTTTTCGTTTGACCTTAT
TCAAATCTTCATGCAGCCCATCTAATAAGAAAGCAAGCAGTTCCTAAGACAACAACAATGTCAG
GAACAAAGAATCTGATTAATTATGCACCATCATACAGATTAGAGGAAATGACTAACTTGAGAAT
CATGCTGATTGTAACCACTAAACTGTGGGGCAAATCTAGCCAATTTCGTCTTAAAAGCGCGTGG
TGCAACTGCATTCCTTCCTGATGACCATAATTTCTTCAACAAATCACCAAACGCGATAGCAAGC
TCACCCTGAAAATTAAGAGTTAGAATTATATTCAGAATGCATGTGAGTACCATCACGAGGAAAT
AGAACATGTAAGTATCAAGCACTTACACACATTCCCAAAGGATTATCTCTATTTATGTCGTCAC
TGTAATCTTGCAAGAAGTATTCAACAATTGGAGGTGTGTGGGCCAAACACTGAAGAGCGCTATT
CATAAAGCAGGTATTTCCCAAATTACTCAATCCTGCTAATCCTCCCTTTTCTCCTTTTCCAAGA
ATACTCAAAGAATCTCTGCCGTCGTCTTCAGAAGTTATTCTCGGAAAGAGACTAAAGTTGGACG
TAGTGGAATGACCATTTGATAGGGTAGGCCCCCCAGCAATTGTAACAATCGACCTTGAAGGTTC
CAGAGGTACCAGAGCTAACTCATTTCCTGTCGAGCTCATAGCAGATTGAGAGGAGGAAGACAAC
CCATCAACTTCAACAAGAATCTGCATGGAATGCGCCAGTCAATGTCAAACAAAGAGACGAACAT
TGATATCATGTGAGTTAAATGGGATTCGGTTTGTGTCGATAAAAGAACTCAAGAGGCATGCATT
ATCCAACAGTAAAATATTTGTCAACAAAGATTCAAGACAATGACCCAAAATCAAGCATTATTAC
AAACTGAAGTCCAAGTGACAAAGGTGATTCGTCAATATTTGTCAATATACATATCACAGACAGT
TCTCTAGATACTTACATCTTGGTCCATATGAAGGCTTGACTCTTCCAGGCTCTTGTAAGATAAA
GGATCCAACAGTCCGTTTTTCCTCTTATCGAAGTAATCCCAGATATGAGCCTGCTTATAAAAAA
AATTATCAATGTGAGGCAAAGCTGCAAAGAGCACGACTTCATAACGAAACAATGCGTTTTTCAT
CAGCAAAAACTAGAAATAGAAATGAAACATCTCAAAAACACACCTTTTCTTGCGGTACCCCTGT
CATAGCACAAACCTTCTCATAAAGTTCCCTTATAGAGGCCTGAAACACGAACAACCCATGTAAG
AAAGGGACCAAAGTGGGGCCTAACAGTTTAAACACAAAGATTCATTGGCTATGCATAAGCACCA
TAAGTAGGTCGTAGCAAAACAAAGAGCCTGAGTAGTATGATCGGGGCCACCTAATACCTGTTTT
CCCAACCGTATTACAGTTCTACTTTCATCTCGTCCGTCTGTCAACATAAGGCAGAGTGGATAAA
CCTCTACACTATAACTCCTTGTATAAAAGCCTTGACAGATCAACTTCCTTTCTATCGGAGGACC
TCCGCTATACCTGCAAGAGACATAAGACCAGGTATATAAACAAAGAAATTAAATGAAACAATCA
TGCAGCAAAACCTGGACCTTGTCCCAATCAGAAAGAACCAAAAGCTCACCATTCAACAAGTCTT
TTCCAAACTTGTTTAGGAACTAAAACGTAGTCCTCCCCTTCCACCAGCAATCTACGAAGTTGTG
GATCATTAATGTCGCTATCACTTTCGATAATATCATGGTTATCAATCGGTCCAGGCCTCGGAGC
TTCCGAAGACTCTCCAGTTGAACATTCATTAGCCGAATTCTCAACATATTCCTGCCAGCTTGTA
TACCAC
Conservation Information
Conserved circRNAs NA
PMCS 0.323502093
Functional Information
Coding potential N
Potential coding position NA
Potential amino acid sequence NA
Sponge-miRNAs NA
circRNA-miRNA-mRNA network  VISUALIZATION
Potential function description response to drought stress
Other Information
References Chu et al., 2017;Zhang et al., 2019