Gene detail

Detailed information of ENSQPTP00000005654.1 in Actinia mediterranea

Genomic Location: chr11:2792304...2831305
NR annotation: XP_031554819.1, uncharacterized protein LOC116291753 isoform X1 [Actinia tenebrosa]
Species Actinia mediterranea · all data for this species · gene families

Gene Structure

More details in JBrowse

Sequence

CDS

ENSQPTT00000006856

ATGGAGGTTGGCAGCGATGGTCGATACGTATACTTCCGCGTCTTATTTGCTATTTTTCTACTTCATCGAACACAAGGATGTCAGGACAGTCCTGTTGGTATAGCAGACAGTAGTACTATACCAGATGACAGATTTACAGCATCTTCATATtatgatcaaaaccatgttgCAAAGAATGCACGTCTGAATGGAGCAGCCAAAGGATGGGCACCAGAGACAACAACCGACCCTAATGACTATCTACAGATAGACTTGGGTCATGTGTTTGTTATTTGTGCTGTGGCAACACAAGGTTCGACTGGATACTATGAATGGTCTACTCAATACATGATATCAACATCCGTTAATAAGAGCACGTGGACAAATTACACAATTGATGGGAAAGTTAAGttGTTTCCTGGTAATACAGATAGGAATACTGTTGTAAAGAATGTCCTAGATTATCCAGTTTTGCTCAGATATATCAGATTCATACCTACAGCGTATAACATTTATAAGGTACTTCGTGTGGAAGCGTATGGTCTTCGGAGAGGTTTGTTGTGCAGCTCTCTACCAGTTGGCATTGATAGTGGTAGGATACCAGACAGtgatatgacgtcatcatcagcTTACAATAGTACCACATCACCATCCAAGGCAAGGCTAAACTACATAGCAGGGTCATCATGGTGTGCTGCTACAAGTGACTCTTCTCCATATCTACAGATTAATTTAGGATCGCCTTACATCATTTGTGGTATAGCAACACAGGGTGACCAAATGACAGATCAGTGGGTACAGTCTTACAACATGCTCACATCAAATAATGGGTCTACTTTTACTAAATACGTGGAAAACAGCCAAGTGAAGTCGTTTGCTGGTAACTTCGACTCTCATGCTACAGTCAAGAATCTCTTGTATGATGGCACTGTTAGTCAGTACATACGTGTTGCGCCCACAAGTCACTTTGGGAGTACAAGCTGCATGAGAACAGAACTCTATGGAATAAAAAACGATGGAGGTTGCACATCTATGTTCGTTGGTTTATCATACACTAGTATCATACCAGATCACAGGTTTACTGCCAGTTCACATTATGATTACCGTTATAAGTCACACTTTGCAAGACTTATGACATTTAGTAAAGCTTGGGGACCACTAACAACCTCTGGTGCATGGTTACAGATAGACCTTGGTCCGGTGGTGTATGTGTGTGCTGTGGCTACTCAAGGTGCTGGGGCTCTTAATGATGAATACGTAACAAAATACAAGATAAAAGTGTCCTTGGATAATGTGAACTGGAATTATTATCAGGAAAATAAAGATGACAAGGAATTTACTGGAAACACAGACCGCTCTACAATTGTTAAAAACAGACTCGAAAATCCAGTTAGGGCAAAGTTTATACGATTCTACCCTATAAGCTCCAGTACCTATCCAACGATGAGAGCTGAGGTTTATGGGATTCCGTCAGCTTGCAGTTCTCCTGTTGGACTTGAGACACCTGGTGTCATTCAAAACAGTCAAATGACGTCATCTTCTAACCTTGACAACACCCATACTGCGTCACATGGTCGTCTCTATGGCAACAACTCATGGTGTAGTAACACTTCATCTAACACTCAGTACATACAGATTAACCTGGGACAAGTGATGACAGTGACAGGTATAGCAACACAGGGTGACCACACCATGGAAAAGTGGGTGAGGACCTACAATATCAGTTACAGTATGGATGACAATCTGTGGAACACCTACAAAGCTGGAGGCAACAGTGATAAGACATTCCAAGGAAACAGCGACAGGAACAATGTAACAGTGCCGTGGCTGAGTTATCCAGTGACAGCCAGGCATATTCGTGTTATGCCACAGACATGGAATACTGCTATATGTATGAGACTAGAACTGTATGGATGTGACTATGTTACCAGACCAGCGATATCAGGTCTGACCAATCGAAACCTGACAGCATCATCCAATAGCTATGTAGATCTTGTGTGTATCGTACAAGAACCATTAATACAGTACATCAAATGGTACACTGGTAATACTGACATTACTAGTCAATCTACTGGTCTGGTGCATGGCGCTAATAGTGTCAAGCAGTCTAAATTGAGAGTGAACTACACGTCTGCTGATGATGTACTCAGTACCTACGATTGTCATGACTCAGTGTGCAGCAAAGCATATGTCTGTAAAGCGATGTATGAGAACACTGAGACTAACGCGGATGGAATAAGAAGTGCAGAAGTGACCGTAATCCTTGATTACCCAAGTATCCTAGCAGTACCAACAGTCCATGATATCAAGTCAACCTTAGTAACAGTGAGATGGATCCAACCCGCACTGAACGCATCCCAGGCTAGTGTGACAACCTACGTGTTACAGTACCAGAACAATACACATACACTGACAATAAGTGTGTCAGCTCCTGCGACGAGTCACGTGATAACTTGTCTCGCTATCTATACTAACTACAGTGTTAAGATAAAAGCGATCAGTGGAGTTGGTCCTGGACAATGGAGTGCGACCACAAACTTCACAACACTCTCAGATAtACCTGTGGGTTTTCCAAATTCTGTGAAAGCTGTGGCTCAAACATCCCAAAGTATACGTGTTACTTGGCAGGCACCGACATTTGGAATCAATGGTCCCTTTCGAGGATACAAAGTATTTTGCACATCAGGAAGTGATAGTCATGAAAGTACTGCAACTCCTCAACAAACAAGTCACACGTTCAGTGGTCTGAGAAAGTGGACAGTGTATAACGTCACAGTGGTCATACGTAACGATAGGGGAGATGGACCTATTAGTAGCGTGCTTAGGCGCACATTAGAAGATGCTCCAGGACAATCACAGAGTTTCCGAGTTACCGTCCTTAATTCTACTGATGTTCGACTGAATTGGGATTTGCCGAGTGAAACAAATGGTATAATAAGAGGGTTCAAGCTGCGCTACGAAAAAACTGGTAGTTTGTCAGAGAAGGATTTACCTGGTAATACAACTCTGTCTTATGTACTGACTGGACTGGACAAGTGTACTCTGTACTCTTTTAAAATGCTAGCCTACACAACCAAAGATGGTCCTTATACACCTGTGATCCAGAAAACAACAGCAGAAGATGCTCCATCTGCACCTGTCATTCTTAAGGCAAACATCATTTCATCTAATGGTCCTTCAGTTCCACAAGTAACACTAACATGGAGTAAACCTGCAGTTTGTGGTGATAATGTTCGCAATTACAAAGTGTCATACAACAATGATGTAGATCCCTCTTCAAAGTTGGAAACTATTGATAAGAGCCAACTAACGGTAACAATTCCTGTGTGGGGAGGGGTGACGTATGAGTTCCGTGTCAGGGGGGTCACCAACAAGGAAGGACCAGACACCCCCATAAAAACTGTTGTGATACCAGTTTATGCACCCAGTGTCTCACCGTCTAACTTAACCTTCAACGACGCTAATAAAACAACATTCAATGTGTCCTGGAACAAGATTCCACGCAGCAAATCTAATGGTCCTGTTATTGCTTATGAAGTTAACCAGACGTTATTGAGAAGACAGAAAGCTAGGAGATCCATCGATGCTGCAGGTCATGTGAAGCTGATGAACTCCTCGTGTTGTAGTCTTTATTTATATGATCTACTGGTTTGCGCTGAGTATCTCATATCAATAAAAGGATACACAAAAGCTGGACCGGGACCTGTCAGTGACGTCACATCCTTAGAAACTTCTGCCCCAGGTCCTCCCTCAGGTCTTGAGCTGGTGAcaacgaagaaaaaaactatttcCTTAAGATGGCAAAAACCTGAATCAGTTACAGAAACAATAAAGAGCTATACGATTTCAtttgaaggaaagaaagactaCAACAGTAGTTTTGTGCACAGCGGTTTACTTTCGGAAAAATCCACAGCGAAAGAGATACGAAACCTATATCCAGGTACTCTTTACACGTTCCAAGTGTCTGCCACCACTGCTTGTGGTAAAGGAGACTACAGTCTATCGTCATCCAGCAATACTAAGGTCGATGCTCCACCTGCTCCTGTTGTTGGATTTATTGGTAACATCACGTCAGAAGTGAACAACATCACAGTTTGGGAAAGTTCTGATATCAATGGACCAATCAAGGCTTACCAAATCATTGTTGTACAAGTGGATAAAACCTCTTCTATCGATGAAACGAAACTAAAAAGTTATGAAGAAGCAGAAAAAGGAAAACTGCACTTCTACATTGCAGCAGAACTTAGAGAAGAAAATGGCAAGAAATTTCCAACATTTTTCACTCTTGGAGACGAGAAAGAATACCATGGATACAAAAATGTGAAACTGAAGCATGGGACAAAATATGAAGTCTCACAAAGAGCCATTACGATTCAAGAAGATGGGGGAAAGAAGACTTTCTTACCCGGGCTTTCGGCTTTGATCGCCACAGGACAAGTTCCAGTAAATAAAGggGGTGGCAAGACACAAACAGGTGATACCAATAATGGAGCGACTAAAGCTGCGATAGGTGGGGTGGTAGCTGTCCTCCTCGTGGTTGCTGTAATTGCAGGTGCAATATTCTTCTGGAAAAGGCGAAAAGGAGAAAGGACGAGAAAAAACGAAAGAGAAAGTCTAGATGATCTTGATAATGCCCTGGACTTAAACGACATTCAAAACGAACAAGACAAGAAAGGGTCTTCTACACCTAACAGTAGAACGAACCTCGTTGATCAAGGGCCAAACGGAGCAAGTAATAAGCAAGGTGGTGGGAGTACTAACGGCGCATTACATGACGAAGATGCAGATCTGTACAGTAATGCCGAGACTCTACGACATCAACCTATCCCTATCAACAAGTTCCCTCACTTCGTCACTGAAAAGAAATCAGTAGACCATTCCTTCAAGGAGGAATTCAAGaCTTTATCAAATGGTCAACAATATCCTTGGGACAATGCAAGAACACCAATAAACAAACCTAAGAACAGATATGCCAACATTATATCATATGACCACTCGCGTATTATTTTACAAGATTCAGAGGATGGTTCAGACTACATTAATGCTTCCTACATACATGGATTTGATGGAACCCCAAGAACTTACATTGCTTCACAAGGCCCGATTCCAACAACAGTGTCAGATTTCTGGCTCATGGTGTGGCAGGAGAAAGTCAAGACTGTTGTTATGTTGACCAATCTGATGGAAGCAGGCAGGGTCAAGTGTCATCAATACTGGCCTGATAGTAAAGACACATATGGTCCAATGACAGTCACTCTTCATCGGTCTGATGTACTTGCTGACTATGTCGTCAGGGTATTCTTCGTGTCTAAGagAGGCGAAGAGGGAAAAATCCAGGTTAACCATTTCCAGTACACTGCCTGGCCTGACAAGGGAGTGCCACAGCATGCCACTTCGGTGCTTGGGTTCAGACGAAAAGTCCGTGCAAACTATGCTTCTGTTGGAGGAGAGGGACCACTGTTGGTACATTGCAGTGCTGGTGTTGGTCGCACAGGGGCCTTTATTGCTGTGGACGCGATGCTGGAGCGAACAAGAAAGGACAAGACTATCGATATTTTTAACTTTGTCCAAATGATGAGGAATAACCGTATTACAATGGTCCAGACCGAGGAACAATATGCCTTCGTGCACTTTGCTGTCCTAGAAGCTTTAACCTGCGGTAACACAGAAGTACCTGTCATGAATCTGAACATCGTGATGGGCAAGTTATCCAAACCAAGACCCAAAGACCAAATGATTGGCTACGAAGTGGAATTTAAGCGTCTTAATCACATATCTCCAGCACTCCTTACTGAGGAATCAAGCGAAATTGgacaaagagaagaaaacATGGCAAGAAACAGATATCCTGATGTTATACCATTGGACTGTGCGCGGGTACTTTTGTCgaacgaaaaacaaaattatatcAACGCCTCCTTTGCCAATGCGTATCGAGAGCGTAACGCGTTCATCATGACCCAAGCACCTTTGGAAAACACCATCTATGATTTCTGGCATATGGTCTTTCAGTACAAGATTGGTTCAGTTGTAATGCTCAATGTCTTGCAAGAAGAACACGAGATCTTCACTCCATATTTGCCATCTGAAGGCAAACAGTCTTATAACGGTATTAGTATCGAGGTGACAGATATTGAAACCAAGGGACCGCTAGTGATCAAGAAATGTAAACTGGTACATCCAATGGAACCACAAGCGTCACATAACTTCATTCACGTGCAGCATACAAAGTGGCCCAATCAAGGTATACCAGAGAGTTCTCAAAGTGTCCTTGATATGGTGACGATAGTGCAAAGGTCACAGCAACAAAGTGGCAACACTCCTATTGCAGTACAGTGCAGTGACGGGGTTGGAAGAAGTGGTACCTTTGCTGCCGTGTACTCTTTACTGGAGAGAGTGAAAGCAGAGCAAGTTATCGATGTTTTCCAAGCAATTAAGGTCCTTCGCCTTGGAAGGCCCAATGCCGTCAAAACACTGGTGCAATACAAGTTCTGCTATATGATGGTTCAAACCTACCTGGATTCATTCAATGATTATGCCAACTTCAGTGAAGTATAA

Transcript

ENSQPTT00000006856

GATCAGACCGGAAGTAGCATTAAGCGGTTGACATGACAAGGTCTATTTATAAACTGATGTTTGACGTCGTTGCGAAGAGGACGCCTTGGAGTTCGCAACAATGGAGGTTGGCAGCGATGGTCGATACGTATACTTCCGCGTCTTATTTGCTATTTTTCTACTTCATCGAACACAAGGATGTCAGGACAGTCCTGTTGGTATAGCAGACAGTAGTACTATACCAGATGACAGATTTACAGCATCTTCATATtatgatcaaaaccatgttgCAAAGAATGCACGTCTGAATGGAGCAGCCAAAGGATGGGCACCAGAGACAACAACCGACCCTAATGACTATCTACAGATAGACTTGGGTCATGTGTTTGTTATTTGTGCTGTGGCAACACAAGGTTCGACTGGATACTATGAATGGTCTACTCAATACATGATATCAACATCCGTTAATAAGAGCACGTGGACAAATTACACAATTGATGGGAAAGTTAAGttGTTTCCTGGTAATACAGATAGGAATACTGTTGTAAAGAATGTCCTAGATTATCCAGTTTTGCTCAGATATATCAGATTCATACCTACAGCGTATAACATTTATAAGGTACTTCGTGTGGAAGCGTATGGTCTTCGGAGAGGTTTGTTGTGCAGCTCTCTACCAGTTGGCATTGATAGTGGTAGGATACCAGACAGtgatatgacgtcatcatcagcTTACAATAGTACCACATCACCATCCAAGGCAAGGCTAAACTACATAGCAGGGTCATCATGGTGTGCTGCTACAAGTGACTCTTCTCCATATCTACAGATTAATTTAGGATCGCCTTACATCATTTGTGGTATAGCAACACAGGGTGACCAAATGACAGATCAGTGGGTACAGTCTTACAACATGCTCACATCAAATAATGGGTCTACTTTTACTAAATACGTGGAAAACAGCCAAGTGAAGTCGTTTGCTGGTAACTTCGACTCTCATGCTACAGTCAAGAATCTCTTGTATGATGGCACTGTTAGTCAGTACATACGTGTTGCGCCCACAAGTCACTTTGGGAGTACAAGCTGCATGAGAACAGAACTCTATGGAATAAAAAACGATGGAGGTTGCACATCTATGTTCGTTGGTTTATCATACACTAGTATCATACCAGATCACAGGTTTACTGCCAGTTCACATTATGATTACCGTTATAAGTCACACTTTGCAAGACTTATGACATTTAGTAAAGCTTGGGGACCACTAACAACCTCTGGTGCATGGTTACAGATAGACCTTGGTCCGGTGGTGTATGTGTGTGCTGTGGCTACTCAAGGTGCTGGGGCTCTTAATGATGAATACGTAACAAAATACAAGATAAAAGTGTCCTTGGATAATGTGAACTGGAATTATTATCAGGAAAATAAAGATGACAAGGAATTTACTGGAAACACAGACCGCTCTACAATTGTTAAAAACAGACTCGAAAATCCAGTTAGGGCAAAGTTTATACGATTCTACCCTATAAGCTCCAGTACCTATCCAACGATGAGAGCTGAGGTTTATGGGATTCCGTCAGCTTGCAGTTCTCCTGTTGGACTTGAGACACCTGGTGTCATTCAAAACAGTCAAATGACGTCATCTTCTAACCTTGACAACACCCATACTGCGTCACATGGTCGTCTCTATGGCAACAACTCATGGTGTAGTAACACTTCATCTAACACTCAGTACATACAGATTAACCTGGGACAAGTGATGACAGTGACAGGTATAGCAACACAGGGTGACCACACCATGGAAAAGTGGGTGAGGACCTACAATATCAGTTACAGTATGGATGACAATCTGTGGAACACCTACAAAGCTGGAGGCAACAGTGATAAGACATTCCAAGGAAACAGCGACAGGAACAATGTAACAGTGCCGTGGCTGAGTTATCCAGTGACAGCCAGGCATATTCGTGTTATGCCACAGACATGGAATACTGCTATATGTATGAGACTAGAACTGTATGGATGTGACTATGTTACCAGACCAGCGATATCAGGTCTGACCAATCGAAACCTGACAGCATCATCCAATAGCTATGTAGATCTTGTGTGTATCGTACAAGAACCATTAATACAGTACATCAAATGGTACACTGGTAATACTGACATTACTAGTCAATCTACTGGTCTGGTGCATGGCGCTAATAGTGTCAAGCAGTCTAAATTGAGAGTGAACTACACGTCTGCTGATGATGTACTCAGTACCTACGATTGTCATGACTCAGTGTGCAGCAAAGCATATGTCTGTAAAGCGATGTATGAGAACACTGAGACTAACGCGGATGGAATAAGAAGTGCAGAAGTGACCGTAATCCTTGATTACCCAAGTATCCTAGCAGTACCAACAGTCCATGATATCAAGTCAACCTTAGTAACAGTGAGATGGATCCAACCCGCACTGAACGCATCCCAGGCTAGTGTGACAACCTACGTGTTACAGTACCAGAACAATACACATACACTGACAATAAGTGTGTCAGCTCCTGCGACGAGTCACGTGATAACTTGTCTCGCTATCTATACTAACTACAGTGTTAAGATAAAAGCGATCAGTGGAGTTGGTCCTGGACAATGGAGTGCGACCACAAACTTCACAACACTCTCAGATAtACCTGTGGGTTTTCCAAATTCTGTGAAAGCTGTGGCTCAAACATCCCAAAGTATACGTGTTACTTGGCAGGCACCGACATTTGGAATCAATGGTCCCTTTCGAGGATACAAAGTATTTTGCACATCAGGAAGTGATAGTCATGAAAGTACTGCAACTCCTCAACAAACAAGTCACACGTTCAGTGGTCTGAGAAAGTGGACAGTGTATAACGTCACAGTGGTCATACGTAACGATAGGGGAGATGGACCTATTAGTAGCGTGCTTAGGCGCACATTAGAAGATGCTCCAGGACAATCACAGAGTTTCCGAGTTACCGTCCTTAATTCTACTGATGTTCGACTGAATTGGGATTTGCCGAGTGAAACAAATGGTATAATAAGAGGGTTCAAGCTGCGCTACGAAAAAACTGGTAGTTTGTCAGAGAAGGATTTACCTGGTAATACAACTCTGTCTTATGTACTGACTGGACTGGACAAGTGTACTCTGTACTCTTTTAAAATGCTAGCCTACACAACCAAAGATGGTCCTTATACACCTGTGATCCAGAAAACAACAGCAGAAGATGCTCCATCTGCACCTGTCATTCTTAAGGCAAACATCATTTCATCTAATGGTCCTTCAGTTCCACAAGTAACACTAACATGGAGTAAACCTGCAGTTTGTGGTGATAATGTTCGCAATTACAAAGTGTCATACAACAATGATGTAGATCCCTCTTCAAAGTTGGAAACTATTGATAAGAGCCAACTAACGGTAACAATTCCTGTGTGGGGAGGGGTGACGTATGAGTTCCGTGTCAGGGGGGTCACCAACAAGGAAGGACCAGACACCCCCATAAAAACTGTTGTGATACCAGTTTATGCACCCAGTGTCTCACCGTCTAACTTAACCTTCAACGACGCTAATAAAACAACATTCAATGTGTCCTGGAACAAGATTCCACGCAGCAAATCTAATGGTCCTGTTATTGCTTATGAAGTTAACCAGACGTTATTGAGAAGACAGAAAGCTAGGAGATCCATCGATGCTGCAGGTCATGTGAAGCTGATGAACTCCTCGTGTTGTAGTCTTTATTTATATGATCTACTGGTTTGCGCTGAGTATCTCATATCAATAAAAGGATACACAAAAGCTGGACCGGGACCTGTCAGTGACGTCACATCCTTAGAAACTTCTGCCCCAGGTCCTCCCTCAGGTCTTGAGCTGGTGAcaacgaagaaaaaaactatttcCTTAAGATGGCAAAAACCTGAATCAGTTACAGAAACAATAAAGAGCTATACGATTTCAtttgaaggaaagaaagactaCAACAGTAGTTTTGTGCACAGCGGTTTACTTTCGGAAAAATCCACAGCGAAAGAGATACGAAACCTATATCCAGGTACTCTTTACACGTTCCAAGTGTCTGCCACCACTGCTTGTGGTAAAGGAGACTACAGTCTATCGTCATCCAGCAATACTAAGGTCGATGCTCCACCTGCTCCTGTTGTTGGATTTATTGGTAACATCACGTCAGAAGTGAACAACATCACAGTTTGGGAAAGTTCTGATATCAATGGACCAATCAAGGCTTACCAAATCATTGTTGTACAAGTGGATAAAACCTCTTCTATCGATGAAACGAAACTAAAAAGTTATGAAGAAGCAGAAAAAGGAAAACTGCACTTCTACATTGCAGCAGAACTTAGAGAAGAAAATGGCAAGAAATTTCCAACATTTTTCACTCTTGGAGACGAGAAAGAATACCATGGATACAAAAATGTGAAACTGAAGCATGGGACAAAATATGAAGTCTCACAAAGAGCCATTACGATTCAAGAAGATGGGGGAAAGAAGACTTTCTTACCCGGGCTTTCGGCTTTGATCGCCACAGGACAAGTTCCAGTAAATAAAGggGGTGGCAAGACACAAACAGGTGATACCAATAATGGAGCGACTAAAGCTGCGATAGGTGGGGTGGTAGCTGTCCTCCTCGTGGTTGCTGTAATTGCAGGTGCAATATTCTTCTGGAAAAGGCGAAAAGGAGAAAGGACGAGAAAAAACGAAAGAGAAAGTCTAGATGATCTTGATAATGCCCTGGACTTAAACGACATTCAAAACGAACAAGACAAGAAAGGGTCTTCTACACCTAACAGTAGAACGAACCTCGTTGATCAAGGGCCAAACGGAGCAAGTAATAAGCAAGGTGGTGGGAGTACTAACGGCGCATTACATGACGAAGATGCAGATCTGTACAGTAATGCCGAGACTCTACGACATCAACCTATCCCTATCAACAAGTTCCCTCACTTCGTCACTGAAAAGAAATCAGTAGACCATTCCTTCAAGGAGGAATTCAAGaCTTTATCAAATGGTCAACAATATCCTTGGGACAATGCAAGAACACCAATAAACAAACCTAAGAACAGATATGCCAACATTATATCATATGACCACTCGCGTATTATTTTACAAGATTCAGAGGATGGTTCAGACTACATTAATGCTTCCTACATACATGGATTTGATGGAACCCCAAGAACTTACATTGCTTCACAAGGCCCGATTCCAACAACAGTGTCAGATTTCTGGCTCATGGTGTGGCAGGAGAAAGTCAAGACTGTTGTTATGTTGACCAATCTGATGGAAGCAGGCAGGGTCAAGTGTCATCAATACTGGCCTGATAGTAAAGACACATATGGTCCAATGACAGTCACTCTTCATCGGTCTGATGTACTTGCTGACTATGTCGTCAGGGTATTCTTCGTGTCTAAGagAGGCGAAGAGGGAAAAATCCAGGTTAACCATTTCCAGTACACTGCCTGGCCTGACAAGGGAGTGCCACAGCATGCCACTTCGGTGCTTGGGTTCAGACGAAAAGTCCGTGCAAACTATGCTTCTGTTGGAGGAGAGGGACCACTGTTGGTACATTGCAGTGCTGGTGTTGGTCGCACAGGGGCCTTTATTGCTGTGGACGCGATGCTGGAGCGAACAAGAAAGGACAAGACTATCGATATTTTTAACTTTGTCCAAATGATGAGGAATAACCGTATTACAATGGTCCAGACCGAGGAACAATATGCCTTCGTGCACTTTGCTGTCCTAGAAGCTTTAACCTGCGGTAACACAGAAGTACCTGTCATGAATCTGAACATCGTGATGGGCAAGTTATCCAAACCAAGACCCAAAGACCAAATGATTGGCTACGAAGTGGAATTTAAGCGTCTTAATCACATATCTCCAGCACTCCTTACTGAGGAATCAAGCGAAATTGgacaaagagaagaaaacATGGCAAGAAACAGATATCCTGATGTTATACCATTGGACTGTGCGCGGGTACTTTTGTCgaacgaaaaacaaaattatatcAACGCCTCCTTTGCCAATGCGTATCGAGAGCGTAACGCGTTCATCATGACCCAAGCACCTTTGGAAAACACCATCTATGATTTCTGGCATATGGTCTTTCAGTACAAGATTGGTTCAGTTGTAATGCTCAATGTCTTGCAAGAAGAACACGAGATCTTCACTCCATATTTGCCATCTGAAGGCAAACAGTCTTATAACGGTATTAGTATCGAGGTGACAGATATTGAAACCAAGGGACCGCTAGTGATCAAGAAATGTAAACTGGTACATCCAATGGAACCACAAGCGTCACATAACTTCATTCACGTGCAGCATACAAAGTGGCCCAATCAAGGTATACCAGAGAGTTCTCAAAGTGTCCTTGATATGGTGACGATAGTGCAAAGGTCACAGCAACAAAGTGGCAACACTCCTATTGCAGTACAGTGCAGTGACGGGGTTGGAAGAAGTGGTACCTTTGCTGCCGTGTACTCTTTACTGGAGAGAGTGAAAGCAGAGCAAGTTATCGATGTTTTCCAAGCAATTAAGGTCCTTCGCCTTGGAAGGCCCAATGCCGTCAAAACACTGGTGCAATACAAGTTCTGCTATATGATGGTTCAAACCTACCTGGATTCATTCAATGATTATGCCAACTTCAGTGAAGTATAAAACAGGTTGTATTTAGGACTTAAACAATCTACAGTTGACCAAGCAAAAATGAGCTTATCTCAGTCAGCACCATAATAGGCCATTTACATGTAATGCACACATTCTGCATGAATGGAATGTCAAACATGAATAACTCTAAATACTCCAATTTACAATTCCTTTctgtgaccacgaataattgTTCCTAGCTGAGGCTGGAGTTACCGCGCATAATAAactgtagttttgctatgcgcggTAACTCCAACCTCGACATGAAACTATtctattcgtggtcactgaacagAACTGTAAAATTGACTATCGAATGGTTTGCAACCACTTCCAACGgggtggccatgttggtaccctGGGTTACAGAGGCTCTCCCGCTCCGGTGCGGAAATAAAATCCAGAGCACCATGTTGGTAATATTAACAAAGAAAGCTAATAAGAAACGGTGACCCTAAATaacttaggcctagggcaaacgtcgaactttccatgcaccgaactcattaaaaacaatggatatcaggtgataatgaggcggcattctttgatgtaattaagttctgtacatggaaagttcgacgtttgccctagacCTTAACGCGAAAACAGAGAATACTTaatatcgaaaaaaaaaaaagtgttttgCCTCCAAATGATGGTCATACACAACAAGAGTTTTTGTTATGACAAACAGTTAAATAATaactgtgttttttttttttttgctataaCACTGTAAATAGCTTTATACTTGAAATTAGATTTATAGTATTAGatattttttgactttttacaGCTTGACTAGTTACGGGAATTTTTAGGAAAAGTGAAGGACTGGGAAATTGCTCTATCATCATTTTTTGTTCCTTCCCAATCTCCTATCTTTCACAGGATCCCGAAGCCGTCAAAttgtaattaattaataaggATTTTTGAAAGATGCTAAAAATAATGAGCTTGCATTTTAAAGATAGTATTTTATATAGTTTTATACGTTTGACTTTA

Protein

ENSQPTP00000005654.1

MEVGSDGRYVYFRVLFAIFLLHRTQGCQDSPVGIADSSTIPDDRFTASSYYDQNHVAKNARLNGAAKGWAPETTTDPNDYLQIDLGHVFVICAVATQGSTGYYEWSTQYMISTSVNKSTWTNYTIDGKVKLFPGNTDRNTVVKNVLDYPVLLRYIRFIPTAYNIYKVLRVEAYGLRRGLLCSSLPVGIDSGRIPDSDMTSSSAYNSTTSPSKARLNYIAGSSWCAATSDSSPYLQINLGSPYIICGIATQGDQMTDQWVQSYNMLTSNNGSTFTKYVENSQVKSFAGNFDSHATVKNLLYDGTVSQYIRVAPTSHFGSTSCMRTELYGIKNDGGCTSMFVGLSYTSIIPDHRFTASSHYDYRYKSHFARLMTFSKAWGPLTTSGAWLQIDLGPVVYVCAVATQGAGALNDEYVTKYKIKVSLDNVNWNYYQENKDDKEFTGNTDRSTIVKNRLENPVRAKFIRFYPISSSTYPTMRAEVYGIPSACSSPVGLETPGVIQNSQMTSSSNLDNTHTASHGRLYGNNSWCSNTSSNTQYIQINLGQVMTVTGIATQGDHTMEKWVRTYNISYSMDDNLWNTYKAGGNSDKTFQGNSDRNNVTVPWLSYPVTARHIRVMPQTWNTAICMRLELYGCDYVTRPAISGLTNRNLTASSNSYVDLVCIVQEPLIQYIKWYTGNTDITSQSTGLVHGANSVKQSKLRVNYTSADDVLSTYDCHDSVCSKAYVCKAMYENTETNADGIRSAEVTVILDYPSILAVPTVHDIKSTLVTVRWIQPALNASQASVTTYVLQYQNNTHTLTISVSAPATSHVITCLAIYTNYSVKIKAISGVGPGQWSATTNFTTLSDIPVGFPNSVKAVAQTSQSIRVTWQAPTFGINGPFRGYKVFCTSGSDSHESTATPQQTSHTFSGLRKWTVYNVTVVIRNDRGDGPISSVLRRTLEDAPGQSQSFRVTVLNSTDVRLNWDLPSETNGIIRGFKLRYEKTGSLSEKDLPGNTTLSYVLTGLDKCTLYSFKMLAYTTKDGPYTPVIQKTTAEDAPSAPVILKANIISSNGPSVPQVTLTWSKPAVCGDNVRNYKVSYNNDVDPSSKLETIDKSQLTVTIPVWGGVTYEFRVRGVTNKEGPDTPIKTVVIPVYAPSVSPSNLTFNDANKTTFNVSWNKIPRSKSNGPVIAYEVNQTLLRRQKARRSIDAAGHVKLMNSSCCSLYLYDLLVCAEYLISIKGYTKAGPGPVSDVTSLETSAPGPPSGLELVTTKKKTISLRWQKPESVTETIKSYTISFEGKKDYNSSFVHSGLLSEKSTAKEIRNLYPGTLYTFQVSATTACGKGDYSLSSSSNTKVDAPPAPVVGFIGNITSEVNNITVWESSDINGPIKAYQIIVVQVDKTSSIDETKLKSYEEAEKGKLHFYIAAELREENGKKFPTFFTLGDEKEYHGYKNVKLKHGTKYEVSQRAITIQEDGGKKTFLPGLSALIATGQVPVNKGGGKTQTGDTNNGATKAAIGGVVAVLLVVAVIAGAIFFWKRRKGERTRKNERESLDDLDNALDLNDIQNEQDKKGSSTPNSRTNLVDQGPNGASNKQGGGSTNGALHDEDADLYSNAETLRHQPIPINKFPHFVTEKKSVDHSFKEEFKTLSNGQQYPWDNARTPINKPKNRYANIISYDHSRIILQDSEDGSDYINASYIHGFDGTPRTYIASQGPIPTTVSDFWLMVWQEKVKTVVMLTNLMEAGRVKCHQYWPDSKDTYGPMTVTLHRSDVLADYVVRVFFVSKRGEEGKIQVNHFQYTAWPDKGVPQHATSVLGFRRKVRANYASVGGEGPLLVHCSAGVGRTGAFIAVDAMLERTRKDKTIDIFNFVQMMRNNRITMVQTEEQYAFVHFAVLEALTCGNTEVPVMNLNIVMGKLSKPRPKDQMIGYEVEFKRLNHISPALLTEESSEIGQREENMARNRYPDVIPLDCARVLLSNEKQNYINASFANAYRERNAFIMTQAPLENTIYDFWHMVFQYKIGSVVMLNVLQEEHEIFTPYLPSEGKQSYNGISIEVTDIETKGPLVIKKCKLVHPMEPQASHNFIHVQHTKWPNQGIPESSQSVLDMVTIVQRSQQQSGNTPIAVQCSDGVGRSGTFAAVYSLLERVKAEQVIDVFQAIKVLRLGRPNAVKTLVQYKFCYMMVQTYLDSFNDYANFSEV

UniProt (Swiss-Prot top hit)

UniProt accession	Description
P23468	Receptor-type tyrosine-protein phosphatase delta OS=Homo sapiens OX=9606 GN=PTPRD PE=1 SV=2
Q64487	Receptor-type tyrosine-protein phosphatase delta OS=Mus musculus OX=10090 GN=Ptprd PE=1 SV=3
A4IFW2	Receptor-type tyrosine-protein phosphatase F OS=Danio rerio OX=7955 GN=ptprf PE=2 SV=1

Gene family

Family type	Membership / link
Orthogroup (gene family)	OG0000060 (this species only) · gene tree & orthology

Pfam domain

Pfam accession	Pfam name	Description	Type	Source
PF18861 all species →	PTP_tm	TM proximal of protein tyrosine phosphatase, receptor type J	Family	Interproscan
PF00102 all species →	Y_phosphatase	Protein-tyrosine phosphatase	Domain	Interproscan
PF00754 all species →	F5_F8_type_C	F5/8 type C domain	Domain	Interproscan
PF00041 all species →	fn3	Fibronectin type III domain	Domain	Interproscan

InterPro

InterPro term	Type	Description	Source
IPR013783 all species →	Homologous_superfamily	Immunoglobulin-like fold	Interproscan
IPR008979 all species →	Homologous_superfamily	Galactose-binding-like domain superfamily	Interproscan
IPR003961 all species →	Domain	Fibronectin type III	Interproscan
IPR000421 all species →	Domain	Coagulation factor 5/8 C-terminal domain	Interproscan
IPR041201 all species →	Domain	PTPRJ, transmembrane domain	Interproscan
IPR007110 all species →	Domain	Immunoglobulin-like domain	Interproscan
IPR029021 all species →	Homologous_superfamily	Protein-tyrosine phosphatase-like	Interproscan
IPR016130 all species →	Active_site	Protein-tyrosine phosphatase, active site	Interproscan
IPR050713 all species →	Family	Receptor-type Tyrosine-protein Phosphatases/Ushers	Interproscan
IPR036116 all species →	Homologous_superfamily	Fibronectin type III superfamily	Interproscan
IPR000387 all species →	Domain	Tyrosine-specific protein phosphatases domain	Interproscan
IPR000242 all species →	Domain	Tyrosine-specific protein phosphatase, PTPase domain	Interproscan
IPR003595 all species →	Domain	Protein-tyrosine phosphatase, catalytic	Interproscan

PANTHER

PANTHER term	Description	Source
PTHR46957 all species →	CYTOKINE RECEPTOR	Interproscan

Gene Ontology

GO term	Category	Description	Source
GO:0005515 all species →	Molecular Function	protein binding	Interproscan
GO:0016311 all species →	Biological Process	dephosphorylation	Interproscan
GO:0043235 all species →	Cellular Component	receptor complex	Interproscan
GO:1990264 all species →	Biological Process	peptidyl-tyrosine dephosphorylation involved in inactivation of protein kinase activity	Interproscan
GO:0004725 all species →	Molecular Function	protein tyrosine phosphatase activity	Interproscan
GO:0006470 all species →	Biological Process	protein dephosphorylation	Interproscan

Search by domain instead of by gene. Any accession above (InterPro, Pfam, PANTHER, GO, KEGG) can be used as a query on the Functional Domain Search page, which searches all 148 annotated genomes at once.

KEGG pathway

No KEGG orthology assignment for ENSQPTP00000005654.1.

Searching by KO or pathway ID across all species is available on the KEGG Pathway page.

Co-expression network

Genes whose expression across the transcriptome samples of Actinia mediterranea tracks this one. Counts are over the whole network; the network view itself draws at most 100 partners per query gene (CNIDO_NET_TOP_K), so a hub gene can show fewer edges than the number below.

No co-expression network has been built for this species, so this gene has no partners to show. Networks are available for the species listed on the Network Analysis page.

Single-cell expression

Whether this gene can be visualised in the single-cell atlases of Actinia mediterranea, and in which cell types it is a marker. Expression is stored per cell, so the violin plot and the cell-type means are computed in the viewer — open a dataset to see them.

No single-cell dataset has been published for this species. The atlases that do exist are listed in the Cell Atlas.

Epigenetic marks

Chromatin and DNA-methylation data covering this gene. Peak calls are listed per sample with the genomic region the peak falls in; DNA methylation is listed as sample availability only, because those tables are queried by the DNA Methylation page itself.

No epigenomic data has been deposited for this species. The assays that exist across the site are described in the Epigenomic Data module.

What you can do with this gene

Every tool below opens with this gene already entered, so you land on the analysis rather than on an empty form. Links open in a new tab.

Analysis	What it does	Status
Primer design	Design PCR / qPCR primers on this gene’s sequence with the published primer3 settings. Opens with the primers already computed.	template found	open →
BLAST	Search this gene’s sequence against the CnidoSite BLAST databases. The query is filled in and the species’ database is preselected — press Run to start.	template found	open →
Expression heatmap	Draw this gene’s expression as a heatmap across all RNA-seq samples, and compare it with the genes you add next to it.	no expression matrix	–
Gene family / orthogroup	Look this gene up in the single-copy orthogroups built from the high-quality cnidarian genomes, and see which other species carry an orthologue.		open →
Gene set analysis	Start a gene-set enrichment analysis with this gene as the seed list. Add more genes on that page before running it.		open →