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Detail for ZS11_C04G57090.t1

Genome:
ZS11: ZS11_C04G57090.t1
ZS11_v0: BnaA04T0188800ZS
WE: WE_C04G60060.t1
WE_v0: BnaC04T0479200WE
Darmor: C04p58330.1_BnaDAR
BH: BnaC04T545300BH
Quinta: BnaC04T0434700QU
ZS2: BnaC04T475100ZS2
SW: BnaC04T523500SW
Express61: C04p040230.2_BnaEXP
Xiaoyun: BnaC04G0494800XY
P202: BnaC04G040770P202.1
BL: BnaC04T545300BH
TA: BnaC04T477900TA
Da-Ae: rna-gnl|WGS:JAGKQM|BnaA01g38270D
RB: BnaC04T531400RB
No2127: BnaA04T0135200NO
P130: BnaC04G060770P130.1
Length: 252
KOG ID: KOG0725
KOG E-value: 3.440000e-164
KOG Score: 458.0
KOG Annotation: General function prediction only
Biological Process: -
Cellular Component: -
Molecular Function: GO:0016491(oxidoreductase activity)
KEGG Ortholog: K08081 TR1; tropinone reductase I [EC:1.1.1.206]
NR Protein: XP_013746497.1
NR E-value: 1.100000e-141
NR Score: 507.7
NR Annotation: XP_013746497.1 tropinone reductase homolog At2g29260, chloroplastic-like [Brassica napus]
SwissProt Protein: Q9ZW12|TRNH5_ARATH
SwissProt E-value: 1.460000e-163
SwissProt Score: 458.0
SwissProt Annotation: Tropinone reductase homolog At2g29260, chloroplastic OS=Arabidopsis thaliana OX=3702 GN=At2g29260 PE=2 SV=1
CDS Sequence (769 bp)
ATGTCTGCTCTTGTCACCGGCGGCACTCGAGGCATCGGGCGTGCGATTGTTGAGGAACTGGTCTGTCTTG
GAGCAAGGGTTCACACTTGCGCTCGCAATGAGACAGAACTCAAAGATTGTTTGAGAGACTGGAACCGTTC
GGGTTTCCAAGTTGATGGGTGGGTCTGCGATGTCTCTGATCGAGCTCAGCGAGAGAGCTTGATGGAAACT
GTCTCCTCTCTCTTCCGCGGGAAGCTCCACATCCTTGTAAACAATGTTGGGACGAACATCAGGAAACCAA
TGGTAGATTTCACTCCTGAAGAGTTTTCAACTCTCCTTTCCACGAATTTCGAATCGGTTTTTCATCTGTG
CCAACTTGCATATCCGATGCTTAGAGCAACTGAGGCTGGATGTGTTGTGTCCATATCCTCTGTTTCTGGT
TTCGTCTCTCTCAAGAACATGTCTGTCCAATCTGCAACCAAAGGAGCAATCAATCAACTTACGAGAAACT
TAGCTTGCGAGTGGGCTAAGGACAATATAAGGGTCAATGCTGTTGCTCCTTGGTATATCAAAACATCTAT
GGTGGAGCAAGTTCTTAGCAACAAAGACTACTTGGATGAAGTTTACTCAGTAACTCCTCTTGGTCGGCTT
GGCGAACCGAGAGAAGTGTCTTCTGCTGTGGCATTTTTATGCTTACCTGCATCATCTTATATCACAGGGC
AGATTGTACGTGTTGATGGAGGAATGTCTATAAACGGTTTCTCCCCACGACATGATTAG
Upstream Sequence
ATGTCTGCTCTTGTCACCGGCGGCACTCGAGGCATCGGGCGTGCGATTGTTGAGGAACTGGTCTGTCTTG
GAGCAAGGGTTCACACTTGCGCTCGCAATGAGACAGAACTCAAAGATTGTTTGAGAGACTGGAACCGTTC
GGGTTTCCAAGTTGATGGGTGGGTCTGCGATGTCTCTGATCGAGCTCAGCGAGAGAGCTTGATGGAAACT
GTCTCCTCTCTCTTCCGCGGGAAGCTCCACATCCTTGTAAACAATGTTGGGACGAACATCAGGAAACCAA
TGGTAGATTTCACTCCTGAAGAGTTTTCAACTCTCCTTTCCACGAATTTCGAATCGGTTTTTCATCTGTG
CCAACTTGCATATCCGATGCTTAGAGCAACTGAGGCTGGATGTGTTGTGTCCATATCCTCTGTTTCTGGT
TTCGTCTCTCTCAAGAACATGTCTGTCCAATCTGCAACCAAAGGAGCAATCAATCAACTTACGAGAAACT
TAGCTTGCGAGTGGGCTAAGGACAATATAAGGGTCAATGCTGTTGCTCCTTGGTATATCAAAACATCTAT
GGTGGAGCAAGTTCTTAGCAACAAAGACTACTTGGATGAAGTTTACTCAGTAACTCCTCTTGGTCGGCTT
GGCGAACCGAGAGAAGTGTCTTCTGCTGTGGCATTTTTATGCTTACCTGCATCATCTTATATCACAGGGC
AGATTGTACGTGTTGATGGAGGAATGTCTATAAACGGTTTCTCCCCACGACATGATTAG
Downstream Sequence
GTTTCTCTCTCTCCACATCTATTCAATTTCCACGAACATAATCCTCTCAAACAACGAATC
CTCAGACATTTGTGTGTGTTAACTGTTACTACAGGCGTGCGATTGTTGAGGAACTGGTCT
GTCTTGGAGCAAGGGTTCACACTTGCGCTCGCAATGAGACAGAACTCAAAGATTGTTTGA
GAGACTGGAACCGTTCGGGTTTCCAAGTTGATGGGTGGGTCTGCGATGTCTCTGATCGAG
CTCAGCGAGAGAGCTTGATGGAAACTGTCTCCTCTCTCTTCCGCGGGAAGCTCCACATCC
TTGTAAAGTAGTGCACATAAAGTGTTCGTTGTTATGCCTCTGAGAACAATTCTAAAAACA
TAATAATTTATTCCTGCTTTAAGGTAAACAATGTTGGGACGAACATCAGGAAACCAATGG
TAGATTTCACTCCTGAAGAGTTTTCAACTCTCCTTTCCACGAATTTCGAATCGGTTTTTC
ATCTGTGCCAACTTGCATATCCGATGCTTAGAGCAACTGAGGCTGGATGTGTTGTGTCCA
TATCCTCTGTTTCTGGTTTCGTCTCTCTCAAGAACATGTCTGTCCAATCTGCAACCAAAG
GTGTTTGTTCACACACTTTCTTTAAGGAGTAAAATCAACCGATAAGGATTTGATTCCCTT
TTGTGTGTGTTTTAGGAGCAATCAATCAACTTACGAGAAACTTAGCTTGCGAGTGGGCTA
AGGACAATATAAGGGTCAATGCTGTTGCTCCTTGGTATATCAAAACATCTATGGTGGAGC
AAGTAATGTTCTCTCATTAGCTTAACTTGTTTTTAAACATCGTCTCGTTTTAATGTTTTC
ATGTCTTTTTGGTCCTCAGGTTCTTAGCAACAAAGACTACTTGGATGAAGTTTACTCAGT
AACTCCTCTTGGTCGGCTTGGCGAACCGAGAGAAGTGTCTTCTGCTGTGGCATTTTTATG
CTTACCTGCATCATCTTATATCACAGGGCAGATTGTACGTGTTGATGGAGGAATGTCTAT
AAACGGTTTCTCCCCACGACATGATTAGTCCACTCTTATAACATTTTTTAGTATATCTTT
TTCGACCTGTGAAAAACAATTCGTCATATGAGACTTTAACAGCTTTCTGCGTTCGGTGTT
TCATAAGAATTGAAGTTTATTTTCATGTTAATGACTTTTATGATAGCAAAAGTCTTCACT
GTTTTGTTCAGTCTATAGATGGATCCAGAGGTTGCTGTTACTATCCAAGTTATGCGCTTG
TAGATTGCTTCTTCTTTGTAACCTTTGCTAGGTGACTCATATATCTCACAAATGTTTTCC
CGCAAAATCTGGAGGATATAAATGGATGGTCCTTAGCTTTCGTGTCAATCAATCTCTGCA
GATGTCACTATGAGGAGCTGCACAATCTTTATCATTTTTGTTTTGTTTCTTATGGATGTA
AATTTAATCTCCTCTACATAAAGAGAGGCTGTAGCTAGTACTAAGTGATCTACCTTCGTT
CAATATAGTATCTTAGACAATGATGGATAACAGCAGATGGAGTCTTCAAGGTATTACTGC
TCTTGTGACCGGTGGAGCCAGAGGAATCGGGTTCGTCTTTCTTCTCCGTTCGCTTTACAT
CACTATCTTACCCACTGTCCTGCTTCTTTTAAACATCTTGACTGTTCAAAGTTAGGTTTG
CCATTGTAGAGGAGTTGGCTGCTTTTGGACATGTATGCGATATATCTGAAACACTTCTCA
ATCAAAGTTTAAACGAATGGCAAAAGAAAGGGTTTCAAGTGAGTGGTTCAGCCTGTGATG
TATCCTCTCGTCCCGAGAGAGAAACACTTATGCAAACTGTCTCATCGCTGTTTGATGGAA
AGCTCAACGTTCTAGTAAGTAACTTGATCTTCAACAAACCAATCAAGTTAAGCTTATTCT
TGAGAGCAAAACTTTTAAAGACTCAACTTGTTGAACCTAGGTAAACAATGTAGGCGGAGT
CCGCTCAAAGTCAACACTAG
Pro Sequence
MSALVTGGTRGIGRAIVEELVCLGARVHTCARNETELKDCLRDWNRSGFQ
VDGWVCDVSDRAQRESLMETVSSLFRGKLHILVNNVGTNIRKPMVDFTPE
EFSTLLSTNFESVFHLCQLAYPMLRATEAGCVVSISSVSGFVSLKNMSVQ
SATKGAINQLTRNLACEWAKDNIRVNAVAPWYIKTSMVEQVLSNKDYLDE
VYSVTPLGRLGEPREVSSAVAFLCLPASSYITGQIVRVDGGMSINGFSPR
HD
mRNA Sequence
ATGTCTGCTCTTGTCACCGGCGGCACTCGAGGCATCGGGCGTGCGATTGTTGAGGAACTGGTCTGTCTTG
GAGCAAGGGTTCACACTTGCGCTCGCAATGAGACAGAACTCAAAGATTGTTTGAGAGACTGGAACCGTTC
GGGTTTCCAAGTTGATGGGTGGGTCTGCGATGTCTCTGATCGAGCTCAGCGAGAGAGCTTGATGGAAACT
GTCTCCTCTCTCTTCCGCGGGAAGCTCCACATCCTTGTAAACAATGTTGGGACGAACATCAGGAAACCAA
TGGTAGATTTCACTCCTGAAGAGTTTTCAACTCTCCTTTCCACGAATTTCGAATCGGTTTTTCATCTGTG
CCAACTTGCATATCCGATGCTTAGAGCAACTGAGGCTGGATGTGTTGTGTCCATATCCTCTGTTTCTGGT
TTCGTCTCTCTCAAGAACATGTCTGTCCAATCTGCAACCAAAGGAGCAATCAATCAACTTACGAGAAACT
TAGCTTGCGAGTGGGCTAAGGACAATATAAGGGTCAATGCTGTTGCTCCTTGGTATATCAAAACATCTAT
GGTGGAGCAAGTTCTTAGCAACAAAGACTACTTGGATGAAGTTTACTCAGTAACTCCTCTTGGTCGGCTT
GGCGAACCGAGAGAAGTGTCTTCTGCTGTGGCATTTTTATGCTTACCTGCATCATCTTATATCACAGGGC
AGATTGTACGTGTTGATGGAGGAATGTCTATAAACGGTTTCTCCCCACGACATGATTAG