Plant Circular RNA Database

Detail information of AT4G09150_circ_g.3

			
						 General Information
					
						CircRNA Name
						AT4G09150_circ_g.3
					
						ID in PlantcircBase
						ath_circ_030029
					
						Alias
						At_ciR3132
					
						Organism
						
							Arabidpsis thaliana						
					
						Position
						
							chr4: 5830822-5832507  JBrowse»						
					
						Reference genome
						
							TAIR10.38						
					
						Type  
						
							e-circRNA							
									
						Identification method
						find_circ
					
						Parent gene
						
							AT4G09150						
					
						Parent gene annotation
						
							T-complex protein 11
							
						Parent gene strand
						+
					
						Alternative splicing
						
							AT4G09150_circ_g.2 AT4G09150_circ_g.4 AT4G09150_circ_g.5 						
					
						Support reads
						2
					
						Tissues
						leaf
					
						Exon boundary  
						
							Yes-Yes							"Exon boundary" shows whether the splicing sites are on the boundary of exons or not. For example, "Yes-No" represents the donor splicing site is on the exon boundary and the accepter is not on the exon boundary.

						Splicing signals  
						
							GT-AG							The splicing signals of the circRNA. For example, "AG-GT" represents that the donor and the accepter splicing signal is "AG" and "GT", respectively.

						Number of exons covered
						AT4G09150.2:5
AT4G09150.1:5

General Information
CircRNA Name	AT4G09150_circ_g.3
ID in PlantcircBase	ath_circ_030029
Alias	At_ciR3132
Organism	Arabidpsis thaliana
Position	chr4: 5830822-5832507 JBrowse»
Reference genome	TAIR10.38
Type	e-circRNA
Identification method	find_circ
Parent gene	AT4G09150
Parent gene annotation	T-complex protein 11
Parent gene strand	+
Alternative splicing	AT4G09150_circ_g.2 AT4G09150_circ_g.4 AT4G09150_circ_g.5
Support reads	2
Tissues	leaf
Exon boundary	Yes-Yes "Exon boundary" shows whether the splicing sites are on the boundary of exons or not. For example, "Yes-No" represents the donor splicing site is on the exon boundary and the accepter is not on the exon boundary.
Splicing signals	GT-AG The splicing signals of the circRNA. For example, "AG-GT" represents that the donor and the accepter splicing signal is "AG" and "GT", respectively.
Number of exons covered	AT4G09150.2:5 AT4G09150.1:5

			
						 Experimental Information
					
						Sanger sequencing for BSS  
						
							NA							Sanger sequencing for back-splicing site (BSS) validation. "Yes" represents Sanger sequencing has been performed to valid the back-splicing site, "No" represents the opposite, "NA" represents "not available".

						PCR primers for BSS   
						
							NA							PCR primers used in back-splicing site (BSS) validation.

						Sanger sequencing for FL   
						
							NA							Sanger sequencing for full-length (FL) sequence validation of circRNAs. "Yes" represents Sanger sequencing has been performed to valid the full-length of circRNA, "No" represents the opposite.

						PCR primers for FL   
						
							NA							 PCR primers used in full-length (FL) sequence validation.

Experimental Information
Sanger sequencing for BSS	NA Sanger sequencing for back-splicing site (BSS) validation. "Yes" represents Sanger sequencing has been performed to valid the back-splicing site, "No" represents the opposite, "NA" represents "not available".
PCR primers for BSS	NA PCR primers used in back-splicing site (BSS) validation.
Sanger sequencing for FL	NA Sanger sequencing for full-length (FL) sequence validation of circRNAs. "Yes" represents Sanger sequencing has been performed to valid the full-length of circRNA, "No" represents the opposite.
PCR primers for FL	NA PCR primers used in full-length (FL) sequence validation.

			
				
						 Sequences
					

				
						Splice junction sequence  
						
							AACCACTCTGGATCATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTG
TTTCAAAAGTCAATACCCCTTCATCTCCATTTCCAGgtaaaggcatcttctccaactaatcggg
ctttattctctgaaactgatggagcacgagaatcaaaagcacctgcagattcgcatcttccatc
ttcatctt

									
								

					

						Assembled circRNA sequence  
						
							Yes
The sequence of a circRNA based on assembly using circseq-cup (Ye et al., 2016) or CIRI-full (Zheng and Zhao, 2018) or CIRCexplorer2 (Zhang et al., 2016).

					

						Full-length trsnacripts
						
							Transcript length: 1045
Transcript exons: 5830822-5830966,5831047-5831204,5831329-5831517,5831607-
5831834,5832183-5832507
GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA
AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC
ACCCTCTTTGAACTCTGGGAGCGAGGCCATTTCTACTCCAAACGTGGTAGCTAATAGCTTTGAT
GCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCATGACAATAGCAGTAGTT
TTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGGTGAGGGTTAAGGAGAC
AATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAGCCAGACTTCAGC
TGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTCCCAAAGACTGGA
GACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGTTACTGGCTTCTGGTAATGT
CGACATGGGTTATCTTGGAAATATTCTTGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCTGCT
CCAGCTAATGAAGAGGAAATCAGGGTTACTCACCATAAACTAATGACAGAACTTGGAGAGATAG
TTCCAACTGATGGCCATTCGAATTCGTCATATGCAGTCTTAATGGTTAAGGGGCTACGCTTTGT
TTTGCAGCAGATTCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAGCCA
CTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTTCCC
CAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGAAGC
AGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGATCA
TCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCAATA
CCCCTTCATCTCCATTTCCAG
Transcript length: 1048
Transcript exons: 5830822-5830966,5831044-5831204,5831329-5831517,5831607-
5831834,5832183-5832507
GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA
AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC
ACCCTCTTTGAACTCTGCAGGGAGCGAGGCCATTTCTACTCCAAACGTGGTAGCTAATAGCTTT
GATGCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCATGACAATAGCAGTA
GTTTTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGGTGAGGGTTAAGGA
GACAATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAGCCAGACTTC
AGCTGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTCCCAAAGACT
GGAGACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGTTACTGGCTTCTGGTAA
TGTCGACATGGGTTATCTTGGAAATATTCTTGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCT
GCTCCAGCTAATGAAGAGGAAATCAGGGTTACTCACCATAAACTAATGACAGAACTTGGAGAGA
TAGTTCCAACTGATGGCCATTCGAATTCGTCATATGCAGTCTTAATGGTTAAGGGGCTACGCTT
TGTTTTGCAGCAGATTCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAG
CCACTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTT
CCCCAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGA
AGCAGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGA
TCATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCA
ATACCCCTTCATCTCCATTTCCAG
						
					

						Genomic sequence
						
							GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA
AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC
ACCCTCTTTGAACTCTGGTAATCTTTTCAATCTGGATAACCTTTTAAGCTCACAGATAATCTGG
CAAGTCTTCAATCTAATGAGTTTTATCTAGCAGGGAGCGAGGCCATTTCTACTCCAAACGTGGT
AGCTAATAGCTTTGATGCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCAT
GACAATAGCAGTAGTTTTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGG
TACATAAATATAAGCTAGTTAAGGCTGTGACTGATGCATTTTGACTTCACTATTCTGATTCATT
AAGTTGGAACTATAATATTTTCGACTTTACTCATATTTCTTCACTTCTGTGATATCCAGGTGAG
GGTTAAGGAGACAATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAG
CCAGACTTCAGCTGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTC
CCAAAGACTGGAGACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGGTGCTTGT
TACTACAGTCTTGTCTTTAATTATTGGTACAACAGATACGTTATGTACTTAATGTCTCTTTCTT
TTCTTGGCATGATTCAGTTACTGGCTTCTGGTAATGTCGACATGGGTTATCTTGGAAATATTCT
TGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCTGCTCCAGCTAATGAAGAGGAAATCAGGGTT
ACTCACCATAAACTAATGACAGAACTTGGAGAGATAGTTCCAACTGATGGCCATTCGAATTCGT
CATATGCAGTCTTAATGGTTAAGGGGCTACGCTTTGTTTTGCAGCAGATTCAGGTATGCACATT
TTTTCCTTTTCGTACTTTGTGGACATAATAATTTTGATCGTTTTGAGCTTTCTAAAATGAACTA
TGAAATAGAAGAAACTTGTAGATGGTTATATTTCTATAATTTTACTGAATAGAGAAGAGGACAG
GGTTTCTCTAGTAGCTACCAACTTACAAACATAATTTGTCCACTATCTCCACAAGCATTACTGT
AATAAACTTCTCCTCTCATGTGATACACTTTGTTAACTACCACAACTAATTTATTTTTCACCCT
CTGAACAAATGAAATCCAAACCTAGGGACTAAATCTGGTACTGGTAGTGCCTTTTAACGTCATA
CGTCCTTTTACTTGCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAGCC
ACTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTTCC
CCAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGAAG
CAGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGATC
ATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCAAT
ACCCCTTCATCTCCATTTCCAG
						
					

			
		

Sequences
Splice junction sequence	AACCACTCTGGATCATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTG TTTCAAAAGTCAATACCCCTTCATCTCCATTTCCAGgtaaaggcatcttctccaactaatcggg ctttattctctgaaactgatggagcacgagaatcaaaagcacctgcagattcgcatcttccatc ttcatctt
Assembled circRNA sequence	Yes The sequence of a circRNA based on assembly using circseq-cup (Ye et al., 2016) or CIRI-full (Zheng and Zhao, 2018) or CIRCexplorer2 (Zhang et al., 2016).
Full-length trsnacripts	Transcript length: 1045 Transcript exons: 5830822-5830966,5831047-5831204,5831329-5831517,5831607- 5831834,5832183-5832507 GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC ACCCTCTTTGAACTCTGGGAGCGAGGCCATTTCTACTCCAAACGTGGTAGCTAATAGCTTTGAT GCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCATGACAATAGCAGTAGTT TTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGGTGAGGGTTAAGGAGAC AATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAGCCAGACTTCAGC TGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTCCCAAAGACTGGA GACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGTTACTGGCTTCTGGTAATGT CGACATGGGTTATCTTGGAAATATTCTTGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCTGCT CCAGCTAATGAAGAGGAAATCAGGGTTACTCACCATAAACTAATGACAGAACTTGGAGAGATAG TTCCAACTGATGGCCATTCGAATTCGTCATATGCAGTCTTAATGGTTAAGGGGCTACGCTTTGT TTTGCAGCAGATTCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAGCCA CTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTTCCC CAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGAAGC AGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGATCA TCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCAATA CCCCTTCATCTCCATTTCCAG Transcript length: 1048 Transcript exons: 5830822-5830966,5831044-5831204,5831329-5831517,5831607- 5831834,5832183-5832507 GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC ACCCTCTTTGAACTCTGCAGGGAGCGAGGCCATTTCTACTCCAAACGTGGTAGCTAATAGCTTT GATGCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCATGACAATAGCAGTA GTTTTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGGTGAGGGTTAAGGA GACAATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAGCCAGACTTC AGCTGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTCCCAAAGACT GGAGACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGTTACTGGCTTCTGGTAA TGTCGACATGGGTTATCTTGGAAATATTCTTGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCT GCTCCAGCTAATGAAGAGGAAATCAGGGTTACTCACCATAAACTAATGACAGAACTTGGAGAGA TAGTTCCAACTGATGGCCATTCGAATTCGTCATATGCAGTCTTAATGGTTAAGGGGCTACGCTT TGTTTTGCAGCAGATTCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAG CCACTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTT CCCCAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGA AGCAGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGA TCATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCA ATACCCCTTCATCTCCATTTCCAG
Genomic sequence	GTAAAGGCATCTTCTCCAACTAATCGGGCTTTATTCTCTGAAACTGATGGAGCACGAGAATCAA AAGCACCTGCAGATTCGCATCTTCCATCTTCATCTTCACCTTCACCGGGCTCATCGAATTTGTC ACCCTCTTTGAACTCTGGTAATCTTTTCAATCTGGATAACCTTTTAAGCTCACAGATAATCTGG CAAGTCTTCAATCTAATGAGTTTTATCTAGCAGGGAGCGAGGCCATTTCTACTCCAAACGTGGT AGCTAATAGCTTTGATGCAGCGTTGGCTAGTGAGAACGAAGTAATTGTAAATGAAATTGTCCAT GACAATAGCAGTAGTTTTGCTGATAGCCTCGACCCTAACACTGGGGATACAAGCAACCTTCAGG TACATAAATATAAGCTAGTTAAGGCTGTGACTGATGCATTTTGACTTCACTATTCTGATTCATT AAGTTGGAACTATAATATTTTCGACTTTACTCATATTTCTTCACTTCTGTGATATCCAGGTGAG GGTTAAGGAGACAATGGAAAAGGCTTTCTGGGATGGTGTCATGGAATCCATGAAACAGTCGCAG CCAGACTTCAGCTGGGTTATTAAACTCATGAAAGAAGTCAGGGATGAACTCTGTGAGATATCTC CCAAAGACTGGAGACAAGAGATTGTTCAAACTATCGATACGGATGTGCTGTCACAGGTGCTTGT TACTACAGTCTTGTCTTTAATTATTGGTACAACAGATACGTTATGTACTTAATGTCTCTTTCTT TTCTTGGCATGATTCAGTTACTGGCTTCTGGTAATGTCGACATGGGTTATCTTGGAAATATTCT TGAGTTTTCCCTTGGCATTTTGCTGAAACTCTCTGCTCCAGCTAATGAAGAGGAAATCAGGGTT ACTCACCATAAACTAATGACAGAACTTGGAGAGATAGTTCCAACTGATGGCCATTCGAATTCGT CATATGCAGTCTTAATGGTTAAGGGGCTACGCTTTGTTTTGCAGCAGATTCAGGTATGCACATT TTTTCCTTTTCGTACTTTGTGGACATAATAATTTTGATCGTTTTGAGCTTTCTAAAATGAACTA TGAAATAGAAGAAACTTGTAGATGGTTATATTTCTATAATTTTACTGAATAGAGAAGAGGACAG GGTTTCTCTAGTAGCTACCAACTTACAAACATAATTTGTCCACTATCTCCACAAGCATTACTGT AATAAACTTCTCCTCTCATGTGATACACTTTGTTAACTACCACAACTAATTTATTTTTCACCCT CTGAACAAATGAAATCCAAACCTAGGGACTAAATCTGGTACTGGTAGTGCCTTTTAACGTCATA CGTCCTTTTACTTGCAGATTCTAAAGAAGGAAATCAGCAAATCTCGTTTGAAACTCTTGGAGCC ACTTCTTAAGGGACCTGCTGGTCTGGAATATCTGAAGAAGTCATTTTCCAGTCGGCATGGTTCC CCAGACCAAGCGTCTTCCTCGCTACCATTGACAAAACGTTGGCTTTTAAGTGTTCGAGGAGAAG CAGAGAGGGAGTGGAAAGAACACAAAGATGCTCTTTCTGCTGTCATAAATAACCACTCTGGATC ATCAGGCCTCCCTTCGACCACCATGCGAACTGGTGGCAATGTCTCCTCTGTTTCAAAAGTCAAT ACCCCTTCATCTCCATTTCCAG

			
						 Conservation Information
					
						Conserved circRNAs
						
							NA						
					
						PMCS
						0.234907264

Conservation Information
Conserved circRNAs	NA
PMCS	0.234907264

			
						 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
						NA

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	NA

			
						 Other Information
					
						References
						Ye et al., 2015

circRNA

Detail information of AT4G09150_circ_g.3

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