Gene

KWMTBOMO15336  Validated by peptides from experiments

Pre Gene Modal

BGIBMGA005071

Annotation

PREDICTED:_baculoviral_IAP_repeat-containing_protein_6_[Papilio_machaon]

Location

Bomo_Chr25(+):9456716-9501986      View in EpiBrowser

Full name

Baculoviral IAP repeat-containing protein 6      

Alternative Name

BIR repeat-containing ubiquitin-conjugating enzyme
RING-type E3 ubiquitin transferase BIRC6
Ubiquitin-conjugating BIR domain enzyme apollon

Location in the cell

Cytoplasmic   Reliability : 1.111 Nuclear   Reliability : 1.706 PlasmaMembrane   Reliability : 1.034

CDS

ATGAACTTTTCTGTAACTTCTCTCACGTACCACAGTAATCTTAATATTATATTGGTGAAGACTGATGTGGGTAGTGTACACGTTTTGGATGTGAATTCGGGTGTGATACTGCAGTCTTCATGTCTGTCAGCGGACGAAGCTGGTACGTTGGGAGTAGAGTACGCTTCCGGAGCGGACCGAGTTTTTGTGTGGGATAGTAGTGGTATTGGTGCACGCACTGATTACAATGGAGTGTTATTACTTCATACAGCTCTGCAACGTCCCCTGCCAATTTCTCATACTGAAAAAAACATAAAGATTGAACTTGTCTTATCTGAGGCTGTGCTCCTGTATCAATGTCTTCAGAGCATAGATGCACATTTTATAGTAGGGCTTTCTGATTTTATCACTGAGTTGAAAAGTGCTATTGATGCTGAACCAGTCCGAAAAGGCGTCAAAGCCCAAAAGTGGAGTACAGTAACAATATGCCTGTCACTATCAACTTTACGACTGGTGGCAGCTAGTGTTGTCCAAGAGCTCAAAGGACAGAGCCGAAGAATTCCGGCCTTAGCTATTGCATCAGCTGTAGGGCAGAGAGCCAATGAACTAGATCCATCATTACGGGATGATGAGAATAGACCCTTGATGAGCTCCGAGGCTGAAAGGAAAGAGACATTCAAAAGATGGCCCCACATGGATTACAAATGGGCTCTCCCAGCTCGTATGGCACAGGCAGGATTCTACCATCAACCATCACCCAGTGGCGATGACCGCGCCATGTGCTTCGCATGTAACGTGTGTCTCGTTTGCTGGGAGAAGAGTGATGAGCCTTGGGTTGAACATGAGCGCCATTCACCTAATTGCTCCTTTGTTAAGGGAGAGTACACACACAACGTCCCCATATCAGTGACAAATGCTACAGCTTGTGCAGTACCATGTCCCAATGTAGCAGTAGTGTCTAAAGGTAACACCGGTGATCTTATCGCTACAGGCACCGTTGAGGGAAAAGTAAACATATGGAGATTCGATTGTGGACTGAAATTAGTCAAATTTGTACATGTTTCACCATATGACTCAATTTTCAGTGGAATTCTCACTACAGATTACAATAAAGTGTGGTCTACAAGCTTAGAGAAAGATTCTTCTACATATAGCATAGAATTGACTGCAATGACTTTTGCTGGAATGACAACTCAATCTGAGAACTACACTCAGGGACAAAATCTAGAAAACATTGAGAAAGATCCAAATATAAACAAGACCAAACCATCACTTATATGTGCTGTCATTATAACGAGAACAAATCTCCCTGAACCCACTTTACCTGTAAAAGATGAAAGTAGCAAAGCCCTCTTCGATTCTGGAGCACTGTCTGAAGAAAAAGTACAAGCAATGAACGATCGAAACGAAGCCGAAAATAGCATGGGACTGACAGAAAAAATACTGTTTTTGCTCACTTATGACATCCACAGTTCCTCAGCAGGGTCCATCACTGCTGTTGTACCAACATCCAATAACAGTGCCAATTCCAAACCAGGTGGTAGCAAGAAAGTTTGCTCAGTAACGAGGACTGACGATGCACATATTTATGACGAAATTTACTTCCAATATTCTGATGATGACACAGAACTACCACAGTGTACTAATACACTGATTGACGAACAAATAAGTAATGTAATAAATTTGAATGCATCATCAAGTAAGGACGACTGTAAAAATTGGGGCGAAACTAAAAAGATTTTTTTAACGAAGCATTTTAAAGTTATGCCACCCCCTCCACCTTCGGCATTGTTGCCTGAACTGCAAGAAGCTGGCCCAGTTAGTATCATAGATATAGTAGGAAAGAAGATGTCCCAAATTAAAAACTGGAAAAGTATGGAGAGTGCTGGTACCAAAATAGTTGATCAAACAGATGCTGTCTTACAAGCTGACCCTTTTGTTCATTATCTGAATATGAGTGGACCTGTTGAAATTCCCGATTTTAAATGGTACGAAAGTGGAGAAAGTACTGAGAAGATCAAGTTTACTACAATTACTGGAAGTAGCAAATTAGGAACTCAAACGGCTGCAACAAATACGAATGACGGGTTTGAAAATGATCCGCCTCAGGAAGAAGCTATCTCTCACGGAGTGGCAGTACAATGTCTGACATTTCCGTCTACGTTAACTCTAAAAGATAATCCCAGAGTGACACATTTGATGCCCACGGAAGATAGAGATCATTTGTTTGTTGTTATATCTCATGTTGATCTTCAAAAACTAAGACTTGAAGACGATACAGACAATGATGGGGATACGAAAATGGAAGTGGATGATGCAGACTTGGAAAAAAAGGCGGATCTAAAAGCTTATTTCATCCTATATAGGCTAAACACTAAAACTTCAATTTACACATTAGAAGATAATCCAATGTCAATTCAAGAGTTACCCTACAATGAAACTCCAATAGATTTATGTTTATTGCCACCGGATAAACATGAACAGTACTCCTTTGCATCTGTTGGTATTGATGGTTGTTTGAGGTTGTACTCTTTGCCAGACTTCAAAATTATATCTGAAAAACGAGTGCCAAAAGGACCTTTCACATCAGTAACATACTGTGCTTCAGTGGAAAGATTGAGTGTGGCAACTAAACATGGGATCATTTATTTCTATGCACTTAATAATGGAGAAAATGATTCAACTGGTGATATTGATGATGACGATTTTGCTAATATTGATTTTGACATGCTTCAACGAGCACCTCGAGATGAAGTTTGTGGACCAACACCTACGCCTATTATAATAGCAAACAAATCTGAACTAGATACTAATGATTTGGAAACTTTGATCAGCGTAACGGGGTTGTATGGTACTAATACGACTGTGCCTTACAGTGCAGTAGTGCCTGGTTTCTGGTGTGAATTATCACCTGCACAAAGACCAACATCGGATCACCAAAATAATAGAACTTGGCGATTACAGAATACGTCTTCAACTTGGGATGAACATGTTCTGGAGTTGACATTACCATACAGTGTCTCGTTAGCTCATATTGAATTTAGCTTCACTTTGCATACGGCATCTACAAGTAGCTTACCAATGATTTTAGTAACACTTTTGAAACAAAACTTACAGGGGATTGGTTACAAAAAAGATGCTTCGTTTGAACCCAAATCTGATTCCCCAGAACAGAATACAACTGAGGAGCCAAATGTCCATAACACAGATATACCTGTAAACAGTGAGGAATATTTACAAGCACAAAATGTTGAAATTTTAGCTGGTCCATTATTACTCTCTACTGGCTTAGATTTGACACAACAGTCTGGAACGTTGATACTGACAAGCCCTAGATTATATAGGGCGAGGGGTAGAACGTTTTTAATCCACATTAAGACTTTATTTGATCCAGCAAAGGATATGAATAAAGCCAATACGAAAACTGGGGAAGGATCTAAAAAATCTGGATTCATTGGATGTGACTGGTTGCATCAGATCTCTTTAACTGTTCGCTCAAGCCCTCATACCAATGTGCCTATGGAACGTCAGCAGAGGATAGCTATGCTCGAATCTAATACATTTTTGAACACATTGTTTGAAATAGCTATAGACAAAAATGATATTAACAAGAGAAAACTCGCACTGGATCTCATAATATGGGTTGTGTCTATTAGACTTCAAAGGATGCGATTAGGATCTAGTGACAAAGTAAAGATCAAAAGTGTCGAAGCTAATCAATTAGAATGTATTAAAATAGTTGAGAAAAACATAAATTCATTAATAAAAACCTGTATTTTATGTGGAAACCGCAGTCTTGCCAAAAAATGTATGAAAATTATACTAGTAACCAGCGAGGGTGACAAACAAGTGCCTAGACCATGGATGTCGACTTTTGACGCGACGCTATCGGGCAGCGTCACGGAGTGCATTCCCTACCTGGGTGCGTGCGAGTCTCCGGGTGCCCTGCGGTGGCTGGTCACTCTGGCACAGCACTGCACGCATCGCTCCACGGCACCCGCCCTGGTCTCCCGGTGCCAAGTTCTACTTGAGAAAACAGCTCGTTGCCTGCGAGAGCGAGCTATCGTCTACCACGACTTGCTAAGAGCCAGATTTGGGCTGTACGGTTTGCCGCTGGAACGCACCCTGTTTGCAACCGAAGTACCGGAGCTTGGCCGGGGTACGCCCGCTCCCGTTACGTACGCCAGCGTACTCTCTGGCGATAATACGACACCACAGCCGCCACCACCACCACCGCCTCCAATACCGAAACTTGATCACCAACTGAAGGATTTACTTAATTTACCATTAGAAATCGATTTAAAAGCGACTCTGTCTCCGTCTGCGTGGTGGGCGCAGAGCAACAGCGTGGCGGTATTCGGCTCGGGGCTGTGCGAGTCCATGCCGCTGCACGTCACGTGTCATATCGCCTCCGACGGCACCAAGCTGGAGTCCACTGGAGGGAGACACTACCCTGCTGTGGTCAGCACCCTGCCTGGACCTGGCTCTGCAGATCCCAATCAGTTGTGGAATGTAATGAAGGAAGGTCAAGCCAAACAAACATCTCAAGATCCTGACTCATTAGAGGATGTGGAAAGTTCAATGATGGATTGCGATTCCCAAGAGAAATTAGAATTTTCGGAAGAAAAGTACTTTAAGGATCAAGAACAGTGCAACATACCTTGGGCCTCTCTGGTTACACGGCCGCCTCAACACACCCTCATTGTGGAAAGAATGCACTCGGGCGCTAGGAGATACATTATATTGGATTTCGGACACACAGTGCGACTTACTGATATCATAATTCCAGCGTGCCCCGATTTAGTAACACTGGGCATTGATATCTGGACCAACTGTGAAGAAACTAACTCGGTCAAACTAGCATATGCCACTGACATAACCAATAAACATCTCGTCCTCACTGATATACAACCTCCGCCTCTTTGCCGATATATGAAGATAACTACAATCGGTCGTTATGGTATGTCTGCCATGAAGTGTAAAATACCACTTGGCTGGTTCTATGGCGAGATAGCTGATATTGCTAATGTTCCAGCGTCCATTAATGCACTCAACGCACTGCACCAAGATTTGACTTGTAGATTCAGGTTGGCGACAGGCAAACTAATGGACCTCCTAAATCCGTATCTGGAACTGTACAATGGTAATGCAGTCCACATGATGTCTTACCTGAATAGTACAATGGATAACGAAGGAAAAGTTATAACAGCTTACCACGAGTGTATAGAGCTCCAGCAACAGATACATACATGTACTAATGTTTTGAAGAAACTGCAGAATAAAACAGATAGCACCCGAAGCATACCAGAGTTGATTGCAAAAGGAAAGGTGACCACTGAAGGTCTCCTTCAGATGTGCTCGACAGATAAACTTAGAGTTATCACAGAGAATATTGTGGATATGTTGCTTTATTTCTATTTCCAAATTGGTGAAATACAATACGAGGAGGTGACTCTGGAATGGTGTCAGAAAGTGACTCCGATGCTATGGGAGTGGAGCGGGCGGAACGCGGGCGCGCTGGCGTCGCTGTTGGCGCGTGCGTGCGGCGCCGCGCCCTGGTGGGGGCCGCACGTCGCCGACACCCTGACCGACGCCTTCGGGGCCTACGACGCACCGCCCATCGCGCTCGACAGGTGTCTGGTGCTGATAATGTACATGTGCCGTAAGAGCGTGCTGTCGGACACCGAGGGAGGCGTGTGCCCGGCGCTCGCGACCCGCACCCTGGAGCTGCTGCAGAGCGGGAGACCACAACCGGCGCTGACGGCTGCACTACTGACTGCCTTGTCAGCTGTTCTAGATGCTGTGTCTGCAGTCACCAATAAACATACCAGATGGGACTGGGTGACGGGCGGGCGGCCCGGCGCCAGCAGCGGCGCCGACACCAGCGCCACGTCGCCGCGCGTGGCCGACTGCCGGCTGCACAGGCGCAAGCTGCACAAGAAACTGCTGCACCAGGTGCGCGAGGTCGAGGCTGCCAAGACCGGCATGCAGGTCGCTTTGGAAGATCAACAGCTATTACAAAGAGCTCGCATGAGTCTTAAAGCTCGACTAGCCGTGGCTGGTAAGCGTGCGCTAAAAGCTGACGTCATAGGCTCGGGCGCTGATTTTCCACCGCCCAGACCTCTGTCTCCCGCGCTGGCCGGGCAACTGGCCCAAGCACTGGTTGCTCACATCCTGGCAGCCGACAGTGCCAGTGACGGAGACGCATTGTTGCTCGCCGCTAAGGTGGTGGGGCGGCTGTGCGCGCTGTCAGGCGGCGACAGTCTGCTGGAGCCCTCGTGCGTGCTGGGGCTGGCGCGCCTCGCCGTCACGCTGCCGCCCTGGCCCAGGCACGCGCTCACCACGCTGCTGCAGGATCTGGTTGAGTACGAAGGTGGCGAAGTGAGTAGCGAAGAGTGGGGCGGCGGCTCGCGCGTCATACACGTGGCGTCTGAGAAGAAGTCTGGGAAAACTCGCAAGAACAAGGGACCGACTGTTGCAGTGTCAATCAAGGACATCGACGTAGAACTAGATTTAAATCAACCAGAGTCCAATGATTCAGACTCTTCGGAAGAGAAACTCGATCAATATTTCTTGGAGGCCGTTAAAAAAGTCACTAGTAGTCTCAAAATCGCTATCGACACAAGCAATAGCAACTTATCTCAGTGCGCGGACGCTCGGCTGGAGAGCGCGGGTGGCGGCGCCGGCGGGCCGGGCGAGGGCTTGGCTCGGCGCGCCCTGCTCACCACGGGACACGCGCTGTCCATCGCCGTGCTCACCGCACCCCTCGCGCCCCGCACGCCGCCCGCCGCGCCGCCCCCCGCGCCTCCCCTGCGACACCATCCCCCGCTTACGCACACGCTCTACGATGTCTTCAGGCATCTCGCACTTGAGTTCCACAATAAGATCGAATGCTCGTTTATGGAGAACGTAGTGTCCCTCTGGTTGACCCTGAACGGCTCGGCGTGGGGCAGCGGCGGCGCCTGGTCGATGGCCACGCTCGCAGTGCCCGTGGACAGGCCGCGAATACGATTGGCGTCTGATACTGTTACGGCCTTGCTTCAGTCTCTGTGCAAATTAGAAAACGTCTCGCTCCGCTGCTGGGTATTATCCATGCAAGCCTTGGCGTGGATCGCGAGCTTGCCCCTGCTGACTGAAGACGGCTGTCAGACTATGGGTCGTGTGATTTTGGAATGTGAACACTTCGTACCCACGTTAGTGAAGTTCGTCACGATGAACGTGAACGCTGACGGCACGGTCGCTTCGTCGGAACCTTACCTCGGCGGAGCGCATATAGGTGCCGGAGCCGGCGCCGCTTCGGCGCTACACTCGGTGATGTCCCGTGTGGTGTGCGGGCGCGGCTCTGCGGGCGCGCTGGCGGCGCTGCGCACCGTGGTCGGCGTGTGGACCCGCCCCTCGCCGCCCGCCCCCGCCTCCGACTTGCACGCCACGTTGTTACGGCTCGCTCATCCCATGCTGCCAGTTCTGTCATCGCATCACCTACATCACGCCTTACCTCTCTTCGAAACAGTCGCGCACGCTTCGTGGTGGTGGGTGTGCGAGACGAGCTGCGGGCGCGGCGAGGGCGGGGCGGAGGCGCGACTGTCGGGTCTGCTGGCGGACGCGTTGGCTGCCGGCGCCGGCCGACGGCCTCCACTGCGCCGCGCTCTCATTGCGCAACTGTTGCACTATTGTCGTAGGATGCTGGCTCTACCTTTGCCGCAGAACGATCAATCTGCCGGATCCTCATCGTCATCCTCTAATGCGGGATCGTCGGGTCCGGAACAGTCTCAGACAGACGAGAGCAAGGCACAAAACAACGCTCGTGAAGCCAACGTCGAAGATGAAAGAAAACAGCAAGCGGCCCGAACTCCGTGCTTTGCCGATACCGTATTACAACAACATCAGATAATGTACAATCTTTATAAAACCCTATCCATATGTGACGGACTCAACATGGCTCTCTTAAATTCAGACAAAAACTTTTCGGACTTGAGCATGAACTCTGAGACTGCTTCAATGAAAGAAGAAATGTATTGGCTGGTGGCACATATCGCCGCCGCTGCTTCGAACCCAAGTCTGATGGTTCCCAGCCTCATCGAATTTATACGTAAAGAAGATTTAGTCAAGTTATCACAATCTATGCAGCTAGTCATGATTCGTTTACTGGACAATCCGGAAGCTCTCGGTGCTTTCATAGATGCCGGAGGTTTTGAACTTGCAGTTGAGAAACTCACTGCTTGTCATCAGGCCGGTCCGAACAGTGGACAAGGGCTCGTGTCTTCTTTGATGAACTACCTTAAGCTTCCTCCTCAAATAATCAACATGTCAACTTCAGCAAACTCTAACAAGAAAAACCAAATGCCAGTTGTCGAGACTTCTAATGGACTGATCAATATCGCTCCGTTTTGCACGGTGACTTGCGGGAACCCGACAGCGCAGGCGGCGGACGTGCTGCTGGACGGCGGCGGCGGCGCCAACGTGCGGGCGGCGTGTGCTGCGCGACGCGTGCGGGCGGCCGCCTGGTCCTACCACTTCTTCAGCGCAGACGACGCTTCTCTCGCGATCACACTCAACCTGCCCTACGCCGTCCAACTGCACGAGGTGCAGCTGCAGCCGCATCTCACGAGCCTCGCCACTTGCCCTGGTGCTGTCGCAGTAGAAGCGGGCTGCGGAGGTACGCTGGCTCCGCTGGGGCCTCCTCAGACTACAGCCGGGACGACCTTCATCCGGCTCGTTATATCGCGGCCTATAGTCTGCAACACAGTACAAGTGCGCCTGTACAAGCCGAGAGACAGCTCTAATATGGGTCTACTGCAGTTGAAGCTACTAGCCATGCCCGCATTCAATACGACGATACCTATCTCAGCGAATACGAATAAGTGGGCGCGCGTGGTGTCGGCGATGAGCGGAGCAGGATCCCGCGTGTCGGATGCCCAATGGGCGGCGCTATGCAGCGGCGGTGCGCTGGCAGCGCTGTGTGCGTGCGTGGCGGCCGGTGGGCCCGCGCAGCACCCCGCTGCCGACGCGCTGCGAGCCGCCGCGCGACACTACCCGCTCGTGCGACCCCATCTAGTGGCAGCGCTCCTCAACATGGACGCGCACGCTCACGCTAACGCCTTCCAAGCGAGCCGCGCAGGTCGCGCGAACAGCAGCATGAGCGCGATATGCGGCTTGGTGCGCGCCGTGTGCGCGGAGAGCGCGGCGCAGTCGGCCGCCACGTACGTGCAGTGGCTGGCGGCCGCCGCCGAGCGCTGGCTGCGCACGCGCACGCCGCCCCCCGCCGCCTTCACGCACACGCTCGCCAACGTTTTATGGACATTGAAAGAAAAACAGCTGCTGGATAATGTAGAAGAATTAATTACGGATGATCTCTTTGACTTGGTCTATACCTGGATCAAAGAAGTGCCAGAAGCAAGTCTGCTGAAGAAATCACTTGACGCAGTTTTATGCTCGATGTGCTACATACGTCCGGAACTATTCAAGATGCTACTTGAGCATATGGATATACCAATGGATCAAGATGAAAGCATGGAAGGCGTGACCGACGACACCAAGGTGCAGGGCTCCAGCAGAGAGGGCGGCGCGGCGGACGGCGGCGTGGCGTGGCGCCTGCGCGGCTGGCAGCTGCGCACCGTGGCCTGCGCCGCCATGTCGCCCGCCGCCACGCTCGCGCTGCTGCACTCGCGCCTGCCCGCCGCCGTCGTCACCGCCATCGCAGAATTCAGCGACGCTAAATTGGAGGCAATAAAACTTCAACGTGATGCTCAAGGAGATGTACCAATGACGGATTCGGATAGAACCACTGGAATGAGTAAAACTGGTTTGACATCAATGAAGAGTGTATGTGAATTAGTGGAATGGGCGCGGCTGGTTTGCACAGAGCGTATACTTAAGGATTGGCTTGGAGGACCAGGTTCTTGTTTCTGGACACCACTATTGCGACTGCTTTGTTACCCGAGACACGCCGAGAGCACCTGGCACGAAGGCGCAGAGTACGCGCAACTGGAGGAAAATACTATACGCCTATTTTCCGAATTAACAGTTTGTCACCCCGCCAATCAGAAACTATTCGCGTCAACGTTGCACAGCATATTGGAGTCCGTGCACTGTACAGGTCCTGAAGGCATCAGCGGGTTCAGTCGCGCGCTGATCCTGCGGCTGGTGCTGTCGGCGGAGCGCGTGCGCGTGGCGGTGCGCTGGGCGAGCGGCGCCACGTGCGTGGTGGGCGGCGCGGGCACGGCGCTGGAGGGCGCGAACCACCCCGCGCTGCACTGCGACGCGCTCTACTCGCTGCCGCTGCACACCTCGCTCAGGACGCTCATCGCAGTGTCTGGCGGATCTGCTATATTTTTCCCTGTGGTGGAGGAGTCGAAGCAGAGCGTGAGCAGCTCCGGCACGGCGTCCGTCCTACGCAGCGCCTCGGATCCCGCGATCGGGGGCGGCGCTGAAATGTGGGAATTGAGTCTGGCTGCGGCTAGCGTGTCCAAAGATAAGCGTGTTAAGGATGTCAAAAACTCTTCCCTCAAGCACCACGCCAGCAAGAAACGGCAGACTAAAGCTGAAACCACCGTCGCGGCAGTGACCGAAGATATGGTCGAAGGCAACGTGCGCATAAAAATAGAAGGCATAGACGCATACGTGGGCGGCAACGTGACGCTCGGACAACTGATATCTTCTGTGCCGCAAGGGTACGGACCTCATCTCACCGTGTCATTGCATTTCGACACCACGGGGGAGGCGGTAGGACCTATGTGGGACAATAACTCGTCTAGCAGCGGGGTAGCGTCGAGCACGCTGGTGCGGGAGTTTGGTGCGTGCGGCGGGCTCGCGCTGGTGGCGGCCCGCCTGCCGCGCCCGCACGCCGCGCCGCCCGACCCGCCGCGCCCCTCGCACCAGCAGGACCTCGACTGGGTCAAACTCGACGACGCCTATGAGGAGGTGGTCGAGCTAGCAGTGACGTCGGGCAGTAACGGTCCCGACGAGTCGACCTGCACCGGGGTGCCGGCTCACGCGCTCATCGCCCTGGGCTTGTTACTGAAGCTCCCTGGATACGCCGACGCGCTGCTGGACGAAGGAGCTCGCGCTGTCCACCTGCTGCGGCTGTTGCTGGGAGTCACGCACGACGAAGAAGGACGTAGCATAGCGGTGAGCGGCGGCGGCGGCAGCGGCGGCGCAGGCTGGTCGCTGGGCACGCTGCCGCTGGTGGTGGTGTCCCGGCTGCTGGAGAGGGCTCCGCGCGGCACGCCGGAGGGCGCGCAGCTGCGGCGCGACCTGATGGCACTCGGGGCGCCGCGCCTGCTGCTCGCCTGTCTCGCTGTGTTTACCCACCACCATCACGCCTCGTCCAACGACAACAGCCAAGCGTCGAACGGGTCGACGGGTAAAACTGAAGAGAAGAACCAACTGTACTGGGCGAAGGGTACCGGCTTCGGCACCGGCTCCACGCAGCAGTCCTGGAACGTGGAGCAGGCGCTCATGCGGCAACGCACCGAGGAGGAGCACGTTACGGCGCTCCTACAAGTATTAGCGTCGTACATAAATCCATGTGAAAAGTGGCCCCCCGAAGAAGGTCAGGAGTCCTCACCGGATACCGAGAGTGAAGCGAACTCTACTGAAGCTCCCAGCGAGGATTGCTCAGACCTGCCTTCAGAGTTTATTGATCTCATAGCCAACAGCTCCCTAGTACCTGCCATCTGTTCGTATCTTAGGAATGATTCAGTGCTGGACATGTCGCGGCACATCCCGCTGTACGTGTGCGTGCTGCGGTGCGCGCGCGGGCTGGCGTCGCTGCGGAGCGCGCGCCTCGCCGCCCCGCTGCGCCCGCTGCCGCGCCTGCTCGCCCAGATGAGCCGCACCACCAACTCCTACGCCACTAAACTCAAAATGAGTAAGAAGACAATATTTGGCAAGATGACCTACAGCCAACGATTCTGTCCAGCCACAAATTCCGAATTATCAGAAGAGGACGAGGGATTAGCTTCACTAATTGCCGACGTACAGGCCACGTCAGCGATGATGTGCAGCGGCAACGTGACCGGCTGGGAGGAGGCGCGCGGCACTCCCAACGCGCCGCCGGCCTCACGCGAGGCTCGGTACATCCAGCTCATGAGAACTATGCAATTCGATACGTACGAGATGATAGCCGAGTGCCCGGAGGCCGGGTTCAAGTTCACCGTGCCGTACCACTTCGAGGGCACCGTGCGCGCGGCCGGCGAGCGCTCGCACCCCGCGCGCGTCAAGCGGCTGGCGCAGGAGGCCGCCACGCTCGCCACCAGCCTGCCGCTCTCCTACTCCTCCTCCGTCTTCGTGCGGTACGACGCCGTCAGGCTCGACGTCATGAAGGTTTTGATAACCGGTCCATCGGATACGCCGTATGCGAACGGCTGCTTTATCTTGGACGTGTACTTCCCTGCCGAGTACCCATCGGTACCGATGCTCATAAACCTGGAGACGACGGGTCGCCACTCGGTCAGATTTAACCCTAACCTCTACAACGATGGCAAGGTCTGCCTCTCCGTACTCAACACCTGGCATGGCAGACCTGAGGAGAAGTGGAACGCTCACACGTCAAGCTTCTTACAGGTATTAGTGTCGATCCAATCACTGATCCTGGTCCCGGAGCCGTACTTCAACGAGCCGGGATACGAGCGCAGCCGGGGCACGCGCGTGGGCAGCACCGCCTCCCTCGAGTACAACTCCAACATATACCAGGCTTGCGTGCGGTGGGCCATGCTGGAACATCTACGGAACCCGGAACCTTGCTTTAAAGAGGTGATTCAGACTCATTTTTGGATAAAACGAAATGAGATAATGCAAACTGTGGCGAATTGGATAACTGAGCTAGAGGGACAGGGCGGAGACGAGCGCACGCAGAGGAGCATACAACTGAACCTCATGGGGCTCAAGCGTCACTACGTTAAGCTGCAAGAGGAGCTCGCGAAGCTGCCGGTGCCGGCTGGCCTCGAGGAGCTGGACGAGCCGTTCCAGCTGCCCGCCGCGCCGCCCCGCCCCGCGCCCCCGCCCGCCGCGCCAGAACCCCGCCCCGCGCCGCCTTCCGACGACGAGATCGATCACGACATGGAGAAGATCGTCGCTTCCTTCCTCGACTGA

Protein

MNFSVTSLTYHSNLNIILVKTDVGSVHVLDVNSGVILQSSCLSADEAGTLGVEYASGADRVFVWDSSGIGARTDYNGVLLLHTALQRPLPISHTEKNIKIELVLSEAVLLYQCLQSIDAHFIVGLSDFITELKSAIDAEPVRKGVKAQKWSTVTICLSLSTLRLVAASVVQELKGQSRRIPALAIASAVGQRANELDPSLRDDENRPLMSSEAERKETFKRWPHMDYKWALPARMAQAGFYHQPSPSGDDRAMCFACNVCLVCWEKSDEPWVEHERHSPNCSFVKGEYTHNVPISVTNATACAVPCPNVAVVSKGNTGDLIATGTVEGKVNIWRFDCGLKLVKFVHVSPYDSIFSGILTTDYNKVWSTSLEKDSSTYSIELTAMTFAGMTTQSENYTQGQNLENIEKDPNINKTKPSLICAVIITRTNLPEPTLPVKDESSKALFDSGALSEEKVQAMNDRNEAENSMGLTEKILFLLTYDIHSSSAGSITAVVPTSNNSANSKPGGSKKVCSVTRTDDAHIYDEIYFQYSDDDTELPQCTNTLIDEQISNVINLNASSSKDDCKNWGETKKIFLTKHFKVMPPPPPSALLPELQEAGPVSIIDIVGKKMSQIKNWKSMESAGTKIVDQTDAVLQADPFVHYLNMSGPVEIPDFKWYESGESTEKIKFTTITGSSKLGTQTAATNTNDGFENDPPQEEAISHGVAVQCLTFPSTLTLKDNPRVTHLMPTEDRDHLFVVISHVDLQKLRLEDDTDNDGDTKMEVDDADLEKKADLKAYFILYRLNTKTSIYTLEDNPMSIQELPYNETPIDLCLLPPDKHEQYSFASVGIDGCLRLYSLPDFKIISEKRVPKGPFTSVTYCASVERLSVATKHGIIYFYALNNGENDSTGDIDDDDFANIDFDMLQRAPRDEVCGPTPTPIIIANKSELDTNDLETLISVTGLYGTNTTVPYSAVVPGFWCELSPAQRPTSDHQNNRTWRLQNTSSTWDEHVLELTLPYSVSLAHIEFSFTLHTASTSSLPMILVTLLKQNLQGIGYKKDASFEPKSDSPEQNTTEEPNVHNTDIPVNSEEYLQAQNVEILAGPLLLSTGLDLTQQSGTLILTSPRLYRARGRTFLIHIKTLFDPAKDMNKANTKTGEGSKKSGFIGCDWLHQISLTVRSSPHTNVPMERQQRIAMLESNTFLNTLFEIAIDKNDINKRKLALDLIIWVVSIRLQRMRLGSSDKVKIKSVEANQLECIKIVEKNINSLIKTCILCGNRSLAKKCMKIILVTSEGDKQVPRPWMSTFDATLSGSVTECIPYLGACESPGALRWLVTLAQHCTHRSTAPALVSRCQVLLEKTARCLRERAIVYHDLLRARFGLYGLPLERTLFATEVPELGRGTPAPVTYASVLSGDNTTPQPPPPPPPPIPKLDHQLKDLLNLPLEIDLKATLSPSAWWAQSNSVAVFGSGLCESMPLHVTCHIASDGTKLESTGGRHYPAVVSTLPGPGSADPNQLWNVMKEGQAKQTSQDPDSLEDVESSMMDCDSQEKLEFSEEKYFKDQEQCNIPWASLVTRPPQHTLIVERMHSGARRYIILDFGHTVRLTDIIIPACPDLVTLGIDIWTNCEETNSVKLAYATDITNKHLVLTDIQPPPLCRYMKITTIGRYGMSAMKCKIPLGWFYGEIADIANVPASINALNALHQDLTCRFRLATGKLMDLLNPYLELYNGNAVHMMSYLNSTMDNEGKVITAYHECIELQQQIHTCTNVLKKLQNKTDSTRSIPELIAKGKVTTEGLLQMCSTDKLRVITENIVDMLLYFYFQIGEIQYEEVTLEWCQKVTPMLWEWSGRNAGALASLLARACGAAPWWGPHVADTLTDAFGAYDAPPIALDRCLVLIMYMCRKSVLSDTEGGVCPALATRTLELLQSGRPQPALTAALLTALSAVLDAVSAVTNKHTRWDWVTGGRPGASSGADTSATSPRVADCRLHRRKLHKKLLHQVREVEAAKTGMQVALEDQQLLQRARMSLKARLAVAGKRALKADVIGSGADFPPPRPLSPALAGQLAQALVAHILAADSASDGDALLLAAKVVGRLCALSGGDSLLEPSCVLGLARLAVTLPPWPRHALTTLLQDLVEYEGGEVSSEEWGGGSRVIHVASEKKSGKTRKNKGPTVAVSIKDIDVELDLNQPESNDSDSSEEKLDQYFLEAVKKVTSSLKIAIDTSNSNLSQCADARLESAGGGAGGPGEGLARRALLTTGHALSIAVLTAPLAPRTPPAAPPPAPPLRHHPPLTHTLYDVFRHLALEFHNKIECSFMENVVSLWLTLNGSAWGSGGAWSMATLAVPVDRPRIRLASDTVTALLQSLCKLENVSLRCWVLSMQALAWIASLPLLTEDGCQTMGRVILECEHFVPTLVKFVTMNVNADGTVASSEPYLGGAHIGAGAGAASALHSVMSRVVCGRGSAGALAALRTVVGVWTRPSPPAPASDLHATLLRLAHPMLPVLSSHHLHHALPLFETVAHASWWWVCETSCGRGEGGAEARLSGLLADALAAGAGRRPPLRRALIAQLLHYCRRMLALPLPQNDQSAGSSSSSSNAGSSGPEQSQTDESKAQNNAREANVEDERKQQAARTPCFADTVLQQHQIMYNLYKTLSICDGLNMALLNSDKNFSDLSMNSETASMKEEMYWLVAHIAAAASNPSLMVPSLIEFIRKEDLVKLSQSMQLVMIRLLDNPEALGAFIDAGGFELAVEKLTACHQAGPNSGQGLVSSLMNYLKLPPQIINMSTSANSNKKNQMPVVETSNGLINIAPFCTVTCGNPTAQAADVLLDGGGGANVRAACAARRVRAAAWSYHFFSADDASLAITLNLPYAVQLHEVQLQPHLTSLATCPGAVAVEAGCGGTLAPLGPPQTTAGTTFIRLVISRPIVCNTVQVRLYKPRDSSNMGLLQLKLLAMPAFNTTIPISANTNKWARVVSAMSGAGSRVSDAQWAALCSGGALAALCACVAAGGPAQHPAADALRAAARHYPLVRPHLVAALLNMDAHAHANAFQASRAGRANSSMSAICGLVRAVCAESAAQSAATYVQWLAAAAERWLRTRTPPPAAFTHTLANVLWTLKEKQLLDNVEELITDDLFDLVYTWIKEVPEASLLKKSLDAVLCSMCYIRPELFKMLLEHMDIPMDQDESMEGVTDDTKVQGSSREGGAADGGVAWRLRGWQLRTVACAAMSPAATLALLHSRLPAAVVTAIAEFSDAKLEAIKLQRDAQGDVPMTDSDRTTGMSKTGLTSMKSVCELVEWARLVCTERILKDWLGGPGSCFWTPLLRLLCYPRHAESTWHEGAEYAQLEENTIRLFSELTVCHPANQKLFASTLHSILESVHCTGPEGISGFSRALILRLVLSAERVRVAVRWASGATCVVGGAGTALEGANHPALHCDALYSLPLHTSLRTLIAVSGGSAIFFPVVEESKQSVSSSGTASVLRSASDPAIGGGAEMWELSLAAASVSKDKRVKDVKNSSLKHHASKKRQTKAETTVAAVTEDMVEGNVRIKIEGIDAYVGGNVTLGQLISSVPQGYGPHLTVSLHFDTTGEAVGPMWDNNSSSSGVASSTLVREFGACGGLALVAARLPRPHAAPPDPPRPSHQQDLDWVKLDDAYEEVVELAVTSGSNGPDESTCTGVPAHALIALGLLLKLPGYADALLDEGARAVHLLRLLLGVTHDEEGRSIAVSGGGGSGGAGWSLGTLPLVVVSRLLERAPRGTPEGAQLRRDLMALGAPRLLLACLAVFTHHHHASSNDNSQASNGSTGKTEEKNQLYWAKGTGFGTGSTQQSWNVEQALMRQRTEEEHVTALLQVLASYINPCEKWPPEEGQESSPDTESEANSTEAPSEDCSDLPSEFIDLIANSSLVPAICSYLRNDSVLDMSRHIPLYVCVLRCARGLASLRSARLAAPLRPLPRLLAQMSRTTNSYATKLKMSKKTIFGKMTYSQRFCPATNSELSEEDEGLASLIADVQATSAMMCSGNVTGWEEARGTPNAPPASREARYIQLMRTMQFDTYEMIAECPEAGFKFTVPYHFEGTVRAAGERSHPARVKRLAQEAATLATSLPLSYSSSVFVRYDAVRLDVMKVLITGPSDTPYANGCFILDVYFPAEYPSVPMLINLETTGRHSVRFNPNLYNDGKVCLSVLNTWHGRPEEKWNAHTSSFLQVLVSIQSLILVPEPYFNEPGYERSRGTRVGSTASLEYNSNIYQACVRWAMLEHLRNPEPCFKEVIQTHFWIKRNEIMQTVANWITELEGQGGDERTQRSIQLNLMGLKRHYVKLQEELAKLPVPAGLEELDEPFQLPAAPPRPAPPPAAPEPRPAPPSDDEIDHDMEKIVASFLD

Description

Anti-apoptotic protein which can regulate cell death by controlling caspases and by acting as an E3 ubiquitin-protein ligase. Has an unusual ubiquitin conjugation system in that it could combine in a single polypeptide, ubiquitin conjugating (E2) with ubiquitin ligase (E3) activity, forming a chimeric E2/E3 ubiquitin ligase. Its tragets include CASP9 and DIABLO/SMAC. Acts as an inhibitor of CASP3, CASP7 and CASP9. Important regulator for the final stages of cytokinesis. Crucial for normal vesicle targeting to the site of abscission, but also for the integrity of the midbody and the midbody ring, and its striking ubiquitin modification.
Anti-apoptotic protein which can regulate cell death by controlling caspases and by acting as an E3 ubiquitin-protein ligase. Has an unusual ubiquitin conjugation system in that it could combine in a single polypeptide, ubiquitin conjugating (E2) with ubiquitin ligase (E3) activity, forming a chimeric E2/E3 ubiquitin ligase. Its tragets include CASP9 and DIABLO/SMAC. Acts as an inhibitor of CASP3, CASP7 and CASP9. Important regulator for the final stages of cytokinesis. Crucial for normal vesicle targeting to the site of abscission, but also for the integrity of the midbody and the midbody ring, and its striking ubiquitin modification. Required for normal placenta development.

Catalytic Activity

S-ubiquitinyl-[E2 ubiquitin-conjugating enzyme]-L-cysteine + [acceptor protein]-L-lysine = [E2 ubiquitin-conjugating enzyme]-L-cysteine + N(6)-ubiquitinyl-[acceptor protein]-L-lysine.

Subunit

Homodimer. Binds the activated, processed forms of CASP3, CASP6, CASP7 and CASP9. Interacts with RNF41, DIABLO/SMAC, HTRA2, KIF23/MKLP1, USP8/UBPY, BIRC5/survivin, MAP2K1/MEK1, RAB8A/RAB8, RAB11A/RAB11, PLK1, EXOC3/SEC6 and EXOC4/SEC8.
Homodimer. Binds the activated, processed forms of CASP3, CASP6 and CASP7. Interacts with RNF41, KIF23/MKLP1, USP8/UBPY, BIRC5/survivin, MAP2K1/MEK1, RAB8A/RAB8, RAB11A/RAB11, PLK1, EXOC3/SEC6 and EXOC4/SEC8 (By similarity). Interacts with CASP9, DIABLO/SMAC and HTRA2.

Similarity

In the C-terminal section; belongs to the ubiquitin-conjugating enzyme family.

Keywords

3D-structure   Apoptosis   Cell cycle   Cell division   Complete proteome   Cytoplasm   Cytoskeleton   Endosome   Golgi apparatus   Membrane   Mitosis   Phosphoprotein   Protease inhibitor   Reference proteome   Thiol protease inhibitor   Transferase   Ubl conjugation   Ubl conjugation pathway   Alternative splicing  

Feature

chain  Baculoviral IAP repeat-containing protein 6
splice variant  In isoform 3.

Uniprot

Q9NR09.2   O88738.2  

EC Number

2.3.2.27

Pubmed

15815621    10544019    10574462    12168954    14765125    15200957    + More
15340445    17081983    18329369    18414036    18669648    19369195    20068231    21269460    21406692    23186163    24275569    24129315    22496338    9628897    19468303    16141072    15368895    15485903    15300255    17242355    21183079   

EMBL

AC079837    AL133243    AL133245    AL133246    AF265555    AB033115    + More
Y17267    AC098726    AC154442    AK041241    AK045446    AK052612    AK079995    AK173143   

Proteomes

UP000005640    UP000000589   

PRIDE

Q9NR09    O88738   

Pfam

PF00653   BIR        + More
PF00179   UQ_con
PF12356   BIRC6

Interpro

IPR022103   BIRC6        + More
IPR000608   UBQ-conjugat_E2       
IPR016135   UBQ-conjugating_enzyme/RWD       
IPR001370   BIR_rpt       
IPR036322   WD40_repeat_dom_sf       

SUPFAM

SSF54495   SSF54495        + More
SSF50978   SSF50978       

Gene 3D

3.10.110.10    

CDD

cd00022  BIR
cd00195  UBCc

ProteinModelPortal

Q9NR09.2   O88738.2  

PDB

3CEG     E-value=9.23429e-106,     Score=990

KEGG

100862752    K10586 baculoviral IAP repeat-containing protein 6 (apollon) [EC:2.3.2.23] | (RefSeq) survivin-1

PATHWAY

04120    Ubiquitin mediated proteolysis - Bombyx mori (domestic silkworm)
04214    Apoptosis - fly - Bombyx mori (domestic silkworm)
04215    Apoptosis - multiple species - Bombyx mori (domestic silkworm)

GO

GO:0043066   GO:0030496   GO:0006468   GO:0008284   GO:0004842   GO:0042127   GO:0004869   GO:2001237   GO:0005815   GO:0005634   GO:0005768   GO:0061631   GO:0000922   GO:0090543   GO:0060712   GO:0016567   GO:0006915   GO:0005802   GO:0006511   GO:0007049   GO:0051301   GO:0016020   GO:0032465   GO:0060711   GO:0001890   GO:0005515   GO:0006357   GO:0006814   GO:0016021   GO:0006270   GO:0042555   GO:0015930  

Subcellular location

Golgi apparatus   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
trans-Golgi network membrane   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Endosome   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Cytoplasm   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Cytoskeleton   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Spindle pole   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Microtubule organizing center   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Centrosome   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Midbody   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.
Midbody ring   Exhibits cell cycle-dependent localization. Concentrates in a pericentriolar compartment in interphase, moves partially to spindle poles in metaphase, and finally localizes to the spindle midzone and the midbody in telophase and during cytokinesis. On the midbody, localizes to the midbody ring, also called Flemming body (PubMed:18329369). In interphase cells, localizes to the trans-Golgi network membrane and endosomes. During cytokinesis, a fraction moves to the midzone where it specifically arrives at the midbody ring. After abscission completion, travels with the midbody remnant into one daughter cell, and remains bound to it until a new midbody ring is formed during the next cell division (PubMed:18329369).   With evidence from 11 publications.

Length:

4356

Number of predicted TMHs:

0

Exp number of AAs in TMHs:

0.167300000000001

Exp number, first 60 AAs:

0.00638

Total prob of N-in:

0.00298

outside

1  -  4356

 

 

Pi

228.770064

Theta

186.207096

Tajima's D

0.637379

CLR

0.610806

CSRT

0.559422028898555

Interpretation

Possibly Positive selection