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Detail for ZS11_C08G17520.t1

Genome:
ZS11: ZS11_C08G17520.t1
ZS11_v0: BnaC08T0154000ZS
WE: WE_A08G13980.t1
WE_v0: BnaC08T0107500WE
Darmor: A08p13270.1_BnaDAR
BH: BnaA08T133900BH
Quinta: BnaA08T0098700QU
ZS2: BnaA08T106200ZS2
SW: BnaA08T125900SW
Express61: A08p009330.1_BnaEXP
Xiaoyun: BnaC08G0151700XY
P202: BnaA08G009250P202.2
BL: BnaA08T133900BH
TA: BnaA08T106200TA
Da-Ae: rna-gnl|WGS:JAGKQM|BnaA01g08490D
RB: BnaC01T117600RB
No2127: BnaC08T0124800NO
P130: BnaA08G012270P130.1
Length: 231
KOG ID: KOG3177
KOG E-value: 1.100000e-97
KOG Score: 286.0
KOG Annotation: Lipid transport and metabolism
Biological Process: GO:0006744(ubiquinone biosynthetic process),GO:0045333(cellular respiration)
Cellular Component: -
Molecular Function: GO:0048039(ubiquinone binding)
KEGG Ortholog: K18588 COQ10; coenzyme Q-binding protein COQ10
NR Protein: ABD65059.1
NR E-value: 6.600000e-112
NR Score: 408.7
NR Annotation: ABD65059.1 hypothetical protein 27.t00124 [Brassica oleracea]
SwissProt Protein: Q6PBN4|CQ10X_DANRE
SwissProt E-value: 3.890000e-29
SwissProt Score: 112.0
SwissProt Annotation: Coenzyme Q-binding protein COQ10 homolog, mitochondrial OS=Danio rerio OX=7955 GN=zgc:73324 PE=2 SV=2
CDS Sequence (705 bp)
ATGGCCCGAGAGCTTTGTTTGCCTTCATTTCACGTCGAAACGCAATCAGGAGTCCGATCACTCGTGCTCA
GAGGAGTTGCATATCGAACCAATTTCGTCGATTCGGGTCCCTTTGCGGCGTCGAGAGATGCAGCTACTCT
CTTCTTCTTCTTCTTTTGGGTTGATGATGCTAGAAGAGTCTCTTTCGGCGCTGGGAGCGTGTTTCAGAGA
CGGCATTTTCTGGGATGCGGAGATGGGGAGGAAGGTGGTGGTGAGTTATCCAAGATCTACCAAGAGCGTC
GTCTCTTGGGGTATTCTCAGGAGCAACTGTTTAATGCAGTTCTAGCCGTAGACTTGTACCACGGGTTTGT
TCCTTGGTGTCAACAACTTGAGATTGGTTTCAAGTTTCTTGTTGAGAGTTACATTTCTCATGTAGAGTTC
GAAAGGCCAAAATGGATCAAGACAACAGCGAGGGACACAGGCCTGTTTGATCATTTGATAAACCTCTGGC
AATTTAAGCCAGGACCCATTCCAGGAACCTGCGACCTTTCTATCCTTGTCGATTTCAAGTTCAACTCACC
TCTCTATCGCCAGGTGGCTTCGATGTTCTTTAAGGAGGTAGCAACAAGActcatgggggcatttagtgac
cgatgcagattagtGTATGGTCCAGGAGTTCGAGTGGATGAAAACGCATTTGAGCAAAGAGCTTGA
Upstream Sequence
ATGGCCCGAGAGCTTTGTTTGCCTTCATTTCACGTCGAAACGCAATCAGGAGTCCGATCACTCGTGCTCA
GAGGAGTTGCATATCGAACCAATTTCGTCGATTCGGGTCCCTTTGCGGCGTCGAGAGATGCAGCTACTCT
CTTCTTCTTCTTCTTTTGGGTTGATGATGCTAGAAGAGTCTCTTTCGGCGCTGGGAGCGTGTTTCAGAGA
CGGCATTTTCTGGGATGCGGAGATGGGGAGGAAGGTGGTGGTGAGTTATCCAAGATCTACCAAGAGCGTC
GTCTCTTGGGGTATTCTCAGGAGCAACTGTTTAATGCAGTTCTAGCCGTAGACTTGTACCACGGGTTTGT
TCCTTGGTGTCAACAACTTGAGATTGGTTTCAAGTTTCTTGTTGAGAGTTACATTTCTCATGTAGAGTTC
GAAAGGCCAAAATGGATCAAGACAACAGCGAGGGACACAGGCCTGTTTGATCATTTGATAAACCTCTGGC
AATTTAAGCCAGGACCCATTCCAGGAACCTGCGACCTTTCTATCCTTGTCGATTTCAAGTTCAACTCACC
TCTCTATCGCCAGGTGGCTTCGATGTTCTTTAAGGAGGTAGCAACAAGActcatgggggcatttagtgac
cgatgcagattagtGTATGGTCCAGGAGTTCGAGTGGATGAAAACGCATTTGAGCAAAGAGCTTGA
Downstream Sequence
GTAACTTTCATCCCAAGTTAAGTTAGGCTCTTTAATCATCTGCATCTGCCTTCCTTCAAT
CATCTGGAATTGGAGCTAACTTTGAGAATTCTTGTTTGATGTTTTGTATTTCAAACAATG
AAAAAGAATGATTCAACTATCTAACTAGCATCTGAGACTGTTAATTTTACAGGATAGAGA
TCTGCCTTTGTGTTTTCATGCCAAACAACTACGAACTAGTTTTCCAGAAAGATGATAACC
TGACGGACCCATTTGTGTTAGTTCGGTTGGTTTTAGATTGAATTTGTGCGAATATTTTAG
AAAGTTTTGCTGTGTCAACGCTTTTATGAATGTGACTAATCCTTGATTCTTATTTTTAAG
ATGCTGTCAACATGGTTGTATGAATGTTTAGATAGTCTTACTTTATCTACTATAGCTCTC
TGCCCTCTTCCATGAAATGGCGCCCCTTTTGACAAAACCTGTAACCCTTAAATTTGCTCT
TCTGTGGATCAAACAGTGGTTCTGATGATATTACAAAAAAAAAGGCATCTGATTATGCAG
GAATGTGGCTTGCCTCTGTGTTTTTCTTGTTTTTATTTAATGACCAACTATGAGTTCATT
TCTTAGAAATATGATAATGTGAATTATTTCCTGACTTTTCTGTGTCAGATATTCTTTATC
CTTATTCTTTCTTAGCTACATTTAGAATCCAAAATTGTGGGAAACACATGGGTTGATCTC
TAATAGCACAATTATTTGAGGTTCATGATTTAACGCAAAGAAGATTGAATTTCAGGTATT
CTCAGGAGCAACTGTTTAATGCAGTTCTAGCCGTAGACTTGTACCACGGGTTTGTTCCTT
GGTGTCAACGCTCCGAGGTTCTTAAAGAATATCCAGATGGGTAGTTTCGATGCAGAACTT
GAGATTGGTTTCAAGTTTCTTGTTGAGAGTTACATTTCTCATGTAGAGTTCGAAAGGCCA
AAATGGATCAAGGTACGGACTTGTTTTTTTTTTCCAGCTTTCTGTTTGTTGAATTTGAGA
GTGTAATGAATCTTACGACATGATTTGAATCCGTTTTTTGCAGACAACAGCGAGGGACAC
AGGCCTGTTTGATCATTTGATAAACCTCTGGCAATTTAAGCCAGGACCCATTCCAGGAAC
CTGCGACCTTTCTATCCTTGTCGATTTCAAGTTCAACTCACCTCTCTATCGCCAGGTAAA
AACTACTTCACAAAGCCTCTGCACTTCTTTTAGCCTACAAGAAATCAACAAGATTTCTTT
GTTCATGATTGAGACTTGTAAGTTGTTAACAATCTACAGAAAAATATATGGTTCCTTTGG
TCATCTAAAGATTGAAACTTGATAGCTGTTATAGTAAGAAAATAATCAAAGATATCTGCA
AAAAAGGAAAAAAAAAAGATTATTTCTTTTATTGGTTACTCAGAAGGTGAATATTGATTA
TAGACTTATAGTACTTTGAAAGAATGTCTCTTTCTTTTTTTTTATTGAAGGTGGCTTCGA
TGTTCTTTAAGGAGGTAGCAACAAGActcatgggggcatttagtgaccgatgcagattag
tGTATGGTCCAGGAGTTCGAGTGGATGAAAACGCATTTGAGCAAAGAGCTTGAGATAGAA
GTATCAACATGAGGTTAGTTTACATCTTGTTTGGTTGGTAGAGAGCGATTACGCTATAGC
TTGTTTCATTTTTTTATGTTCATATATGAATGCTTTTGCATAAGAAGATTAGACACATTG
TTTGTTTAATGTAAAAGCTGAAAATAAATACATCCATATTTCTCGTCTTTTGGGAGTCAC
TTTTCTTTTCATTCAAACAACAGTATTTTTGGTGTAGATATTTGATGATGACACCACACA
TGCAAACGTATGTGAATGACATAACTTGTTGGATTACGCTTTCAAAAATTAGTGGGGAAT
TCAATTAGATGCAAAAGTCTTAGACGGTTTGGAAAAGTCTTAAATTTGCCTAAGTCCAGT
CAAAATCTAGTCAAAAGTGC
Pro Sequence
MARELCLPSFHVETQSGVRSLVLRGVAYRTNFVDSGPFAASRDAATLFFF
FFWVDDARRVSFGAGSVFQRRHFLGCGDGEEGGGELSKIYQERRLLGYSQ
EQLFNAVLAVDLYHGFVPWCQQLEIGFKFLVESYISHVEFERPKWIKTTA
RDTGLFDHLINLWQFKPGPIPGTCDLSILVDFKFNSPLYRQVASMFFKEV
ATRLMGAFSDRCRLVYGPGVRVDENAFEQRA
mRNA Sequence
ATGGCCCGAGAGCTTTGTTTGCCTTCATTTCACGTCGAAACGCAATCAGGAGTCCGATCACTCGTGCTCA
GAGGAGTTGCATATCGAACCAATTTCGTCGATTCGGGTCCCTTTGCGGCGTCGAGAGATGCAGCTACTCT
CTTCTTCTTCTTCTTTTGGGTTGATGATGCTAGAAGAGTCTCTTTCGGCGCTGGGAGCGTGTTTCAGAGA
CGGCATTTTCTGGGATGCGGAGATGGGGAGGAAGGTGGTGGTGAGTTATCCAAGATCTACCAAGAGCGTC
GTCTCTTGGGGTATTCTCAGGAGCAACTGTTTAATGCAGTTCTAGCCGTAGACTTGTACCACGGGTTTGT
TCCTTGGTGTCAACAACTTGAGATTGGTTTCAAGTTTCTTGTTGAGAGTTACATTTCTCATGTAGAGTTC
GAAAGGCCAAAATGGATCAAGACAACAGCGAGGGACACAGGCCTGTTTGATCATTTGATAAACCTCTGGC
AATTTAAGCCAGGACCCATTCCAGGAACCTGCGACCTTTCTATCCTTGTCGATTTCAAGTTCAACTCACC
TCTCTATCGCCAGGTGGCTTCGATGTTCTTTAAGGAGGTAGCAACAAGActcatgggggcatttagtgac
cgatgcagattagtGTATGGTCCAGGAGTTCGAGTGGATGAAAACGCATTTGAGCAAAGAGCTTGA