Strain
Human_HKU1_KT779556
(Region: China; Strain: Human coronavirus HKU1 isolate BJ01-p9, complete genome.; Date: 23-Apr-09)
Gene
orf1ab polyprotein
Description
Annotated in NCBI,
orf1ab polyprotein
Location
GenBank Accession
Full name
Replicase polyprotein 1ab
Alternative Name
ORF1ab polyprotein
Sequence
CDS
ATGATTAAAACCAGCAAATACGGTCTCGGCTTCAAGTGGGCGCCAGAATTTCGTTGGCTGCTTCCGGATGCAGCGGAGGAGTTGGCTAGTCCTATGAAGTCAGATGAGGGTGGGTTATGCCCCTCTACTGGTCAAGCGATGGAAAGTGTTGGATTCGTTTATGATAATCATGTGAAGATAGATTGTCGCTGCATTCTTGGACAAGAATGGCATGTGCAGTCAAATCTTATCCGTGATATTTTTGTTCATGAAGATCTACATGTTGTAGAAGTTCTAACTAAAACAGCCGTAAAGTCCGGTACGGCAATTTTAATTAAATCACCTTTGCATAGCTTGGGTGGTTTTCCTAAAGGGTATGTTATGGGCTTGTTCCGTTCATACAAGACTAAACGTTATGTTGTACATCATCTTTCTATGACTACATCTACTACTAATTTTGGTGAAGATTTTTTGGGTTGGATTGTACCTTTTGGTTTTATGCCATCTTATGTTCACAAATGGTTTCAATTCTGTAGGTTGTATATTGAAGAGAGTGATTTAATAATTTCAAATTTTAAATTTGATGATTATGATTTTAGTGTAGAAGATGCTTATGCTGAGGTTCATGCTGAGCCTAAAGGTAAATATTCACAAAAAGCTTATGCTTTACTTAGACAATATCGTGGTATTAAACCCGTACTTTTTGTAGACCAGTATGGTTGTGACTATTCTGGTAAATTAGCAGATTGTCTTCAAGCTTATGGTCATTATTCTTTGCAAGATATGAGACAAAAGCAGTCTGTATGGCTTGCCAATTGTGACTTTGATATTGTAGTGGCTTGGCATGTAGTTCGTGATTCACGATTTGTTATGCGCCTGCAGACTATAGCTACTATTTGTGGTATTAAATATGTTGCACAACCTACAGAAGATGTAGTAGATGGAGATGTAGTTATACGTGAACCTGTACATTTATTATCTGCTGATGCAATAGTTTTAAAGCTTCCTAGTTTGATGAAAGTTATGACTCATATGGATGATTTTTCTATTAAATCTATATATAATGTTGATTTGTGTGATTGTGGTTTTGTTATGCAGTATGGTTATGTAGATTGTTTTAATGATAATTGTGATTTTTATGGTTGGGTTTCAGGTAATATGATGGATGGTTTTTCTTGTCCATTGTGTTGTACAGTTTATGACTCTAGCGAAGTTAAAGCCCAATCATCTGGTGTTATTCCTGAAAATCCTGTGTTATTTACTAATAGTACTGATACTGTTAACCATGATTCTTTTAATTTGTATGGTTATTCTGTCACACCATTTGGTTCTTGTATATATTGGTCGCCGCGTCCTGGATTGTGGATTCCTATAATTAAATCTTCAGTCAAGTCTTATGATGATTTGGTTTATTCAGGTGTAGTAGGTTGTAAATCTATTGTTAAAGAAACTGCTCTTATTACTCATGCACTTTACTTAGATTATGTTCAATGTAAGTGTGGTAATCTTGAACAAAATCATATTCTTGGCGTTAATAATTCTTGGTGTAGGCAACTGTTGCTTAATAGAGGTGATTATAATATGCTTCTAAAAAATATTGACTTGTTTGTTAAGCGTCGTGCTGATTTTGCTTGCAAGTTTGCAGTTTGTGGAGATGGTTTTGTACCTTTTTTACTAGATGGTTTAATTCCCCGTAGTTATTATCTAATTCAGAGTGGTATTTTCTTTACATCTTTGATGTCTCAATTTTCACAAGAAGTTTCTGATATGTGTTTAAAAATGTGTATTTTGTTTATGGACAGAGTTTCAGTTGCTACATTTTATATAGAGCATTATGTTAATAGGTTGGTTACTCAATTTAAGTTATTGGGTACTACACTTGTTAATAAAATGGTTAATTGGTTTAATACCATGTTAGATGCTAGTGCACCTGCTACAGGCTGGCTTCTTTACCAATTATTGAATGGTCTTTTTGTAGTATCTCAAGCTAACTTTAATTTTGTTGCTTTAATACCTGATTATGCTAAAATTTTAGTTGATAAATTTTACACTTTTTTTAAGTTATTATTAGAGTGTGTTACAGTTGATGTTTTAAAAGATATGCCTGTTCTTAAAACTATTAATGGTTTAGTTTGTATTGTAGGCAATAAGTTTTATAACGTTAGTACAGGGTTAATTCCTGGTTTTGTTTTACCATGTAATGCACAGGAACAACAAATTTATTTTTTTGAAGGCGTTGCAGAATCTGTTATAGTAGAAGATGATGTTATTGAGAATGTCAAATCTTCTTTATCATCTTATGAGTATTGTCAACCACCTAAATCTGTAGAAAAAATTTGTATTATAGATAATATGTACATGGGTAAGTGTGGTGATAAATTTTTCCCTATTGTCATGAATGATAAAAATATTTGTCTTTTAGATCAGGCTTGGCGTTTTCCATGTGCAGGTAGAAAAGTTAATTTTAACGAGAAACCTGTTGTTATGGAGATTCCGTCTTTGATGACAGTTAAGGTTATGTTTGATTTAGATTCTACTTTTGATGATATTTTAGGTAAAGTTTGTTCAGAATTTGAAGTAGAAAAGGGTGTTACTGTAGATGATTTTGTTGCTGTTGTTTGTGATGCTATAGAGAATGCTTTAAACTCTTGTAAAGAGCATCCAGTGGTTGGTTATCAAGTTCGTGCATTTTTAAATAAACTTAATGAGAATGTTGTTTATTTATTTGATGAGGCTGGTGATGAAGCAATGGCCTCTCGTATGTATTGTACTTTTGCTATTGAGGATGTTGAAGACGTTATCAGTAGTGAAGTTGTCGAAGATACTATTGATGGTGTTGTTGAAGACACTATTAATGACGATGAAGATGTTGTCACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGACGATGAAGATGTTGTTACTGGTGACAATGATGATGACAATGATGACCAAATTGTTGTTATTGGTGATGATGTAGATGATATTGACACTATTAATTGTGAAAGTATTTATGAATTTGATACTTATAAAGCTCTTTTAGTTTTTAATGATGTTTATAATGATGCTTTGTTTGTTAGTTATGGTTCTAGTGTTGAAACAGAAACATATTTTAAAGTTAAGGGTTTATGGTCACCTACTATTACACATACTAACTGTTGGTTGCGTTCTGTGTTACTTGTAATGCAGAAATTACCTTTTAAGTTTAAGGATTTAGCTATTGAAAATATGTGGTTATCTTATAAGGTGGGTTATAATCAAAGGTTTGTTGATTATTTACTGACCACTATTCCTAAAGCTATTGTTTTGCCTCAAGGTGGTTTTGTAGCTGATTTTGCTTATTGGTTTTTAAACCAGTTTGATATTAATGCGTATGCTAATTGGTGTTGTTTAAAATGTGGTTTTTCTTTTGATTTAAATGGTTTGGATGCTGTGTTTTTTTATGGAGATATTGTGTCTCATGTTTGTAAGTGTGGATATAATATGACTCTAATAGCAGCGGACTTACCTTGTACATTACATTTTTCATTATTTGATGATAATTTTTGTGCTTTTTGCACCCCTAAAAAAAATTTTATTGCTGCTTGTGCTGTGGATGTAAACGTTTGTCATTCTGTAGCTGTTATAGGTGATGAACAAATAGATGGTAAGTTTGTTACTAAATTTAGTGGTGATAAATTTGATTTTATAGTAGGTTATGGAATGTCATTTAGTATGTCTTCTTTTGAGTTAGCTCAATTGTATGGTTTGTGTATAACACCTAATGTATGTTTTGTTAAAGGTGATATTATAAATGTTGCTAGACTTGTTAAAGCTGATGTTATTGTTAATCCTGCTAATGGGCATATGCTCCATGGTGGTGGAGTTGCAAAAGCTATAGCTGTAGCTGCAGGTAAAAAATTTTCTAAAGAAACTGCTGCTATGGTTAAATCTAAAGGTGTTTGCCAAGTAGGAGATTGTTATGTTTCTACCGGTGGTAAATTATGTAAAACAATTCTTAATATTGTAGGCCCTGATGCTAGACAAGATGGAAGACAATCTTATGTTTTGTTAGCACGTGCTTATAAGCATCTTAATAAGTATGATTGTTGTTTGTCTACTCTCATATCGGCTGGTATATTTAGTGTTCCTGCTGATGTGTCATTAACTTACCTTCTAGGTGTTGTTGATAAACAAGTTATCCTTGTTAGTAATAATAAAGAAGATTTTGATATTATTCAAAAATGTCAAATTACTTCAGTTGTTGGTACTAAAGCATTGGCTGTTAGATTAACTGCTAATGTAGGCCGTGTTATTAAATTTGAGACAGATGCATACAAACTTTTCTTGAGTGGTGATGATTGTTTTGTTTCAAATTCTTCTGTTATACAAGAAGTTTTATTGCTTCGTCATGATATACAATTGAATAATGACGTTCGTGATTATTTGTTGTCTAAGATGACTAGTCTTCCTAAAGATTGGCGTCTTATCAATAAATTTGATGTTATTAATGGTGTTAAAACTGTTAAGTATTTTGAGTGTCCTAATTCTATTTATATATGTAGTCAGGGTAAAGACTTTGGTTATGTATGTGATGGTTCTTTTTATAAAGCAACTGTTAATCAAGTTTGTGTTTTATTAGCTAAGAAGATAGATGTTTTGCTTACTGTAGATGGTGTTAATTTTAAATCTATTTCTCTTACTGTAGGTGAAGTTTTTGGTAAAATACTTGGTAATGTTTTCTGTGATGGCATTGATGTTACTAAGTTAAAGTGTAGTGATTTTTATGCCGATAAAATTTTATATCAGTATGAAAATTTGTCTTTAGCTGATATTTCTGCTGTACAAAGTTCATTTGGTTTTGATCAGCAACAATTGCTCGCTTATTATAATTTTTTAACAGTATGTAAATGGTCTGTAGTTGTTAACGGTCCATTTTTTTCTTTTGAACAGTCTCATAATAATTGTTATGTGAATGTAGCTTGCCTTATGTTGCAGCATATTAATCTTAAATTTAATAAATGGCAGTGGCAGGAAGCATGGTATGAATTTCGTGCTGGCAGACCACATAGATTAGTTGCTCTTGTTTTAGCTAAAGGTCATTTTAAATTTGATGAACCATCAGATGCTACTGATTTTATTCGTGTTGTTTTGAAACAAGCTGATTTATCAGGTGCAATCTGTGAATTAGAACTTATTTGTGATTGTGGTATTAAACAAGAAAGTCGTGTTGGTGTTGATGCTGTTATGCATTTTGGTACATTAGCAAAGACTGATCTTTTTAATGGTTATAAGATTGGCTGTAATTGTGCAGGTAGAATTGTCCATTGTACTAAATTGAATGTACCATTTTTGATTTGTTCTAATACTCCTCTGAGTAAGGATTTACCTGATGATGTTGTTGCAGCTAACATGTTTATGGGTGTAGGTGTAGGCCATTATACACATTTGAAATGTGGTTCACCTTACCAACATTATGATGCTTGTAGTGTTAAAAAATATACAGGTGTTAGTGGTTGTTTAACTGACTGCTTGTATCTTAAAAATTTAACCCAGACTTTTACATCTATGTTGACTAATTATTTTTTGGATGATGTTGAAATGGTTGCTTATAACCCTGATCTTTCACAATATTATTGTGATAATGGTAAGTATTATACAAAACCTATTATAAAGGCTCAATTTAAACCATTTGCTAAAGTTAACGGTGTTTATACTAACTTTAAGTTAGTTGGACATGATATTTGTGCTCAACTGAATGATAAGTTAGGTTTTAATGTAGATTTGCCGTTTGTTGAGTACAAAGTAACAGTCTGGCCTGTAGCTACTGGTGATGTTGTTTTGGCATCTGATGATTTATATGTGAAACGTTATTTTAAAGGATGTGAAACTTTTGGTAAGCCTGTTATTTGGTTTTGTCATGATGAAGCATCATTGAATTCTCTTACTTATTTTAATAAACCTAGTTTTAAATCTGAAAATAGATATAGTGTTTTGTCTGTTGATTCTGTATCTGAGGAGTCACAAGGTAATGTGGTTACTTCTGTTATGGAATCGCAGATTAGTACTAAAGAGGTTAAGTTAAAGGGTGTTAGAAAGACTGTTAAAATAGAAGATGCTATTATTGTTAATGATGAAAATAGTTCTATTAAGGTTGTTAAAAGTTTATCTTTAGTTGATGTTTGGGATATGTATTTGACAGGTTGTGATTATGTTGTTTGGGTTGCTAATGAATTGTCACGCCTAGTTAAATCACCAACAGTTAGGGAATATATACGATATGGTATTAAACCTATTACTATACCTATAGATTTGTTATGTTTAAGAGATGATAATCAAACTCTTTTAGTTCCTAAAATTTTTAAAGCAAGAGCTATAGAATTTTATGGTTTTTTGAAGTGGTTGTTTATTTATGTTTTTAATTTATTACATTTTACAAATGATAAAACCATTTTTTATACTACAGAAATAGCTTCTAAGTTTACTTTTAATTTGTTTTGTTTGGCTCTTAAAAATGCTTTTCAGACATTTAGATGGAGTATATTTATAAAAGGTTTTCTTGTTGTAGCCACTGTGTTTTTGTTTTGGTTTAATTTTTTGTATATAAATGTTATTTTTAGTGATTTTTATCTTCCTAATATTAGTGTTTTTCCTATTTTTGTGGGAAGAATTGTTATGTGGATAAAGGCTACTTTTGGTTTGGTTACAATTTGTGATTTTTATTCTAAGTTAGGTGTAGGTTTTACAAGTCATTTTTGTAATGGTAGTTTTATATGTGAATTGTGTTATTCTGGTTTTGATATGTTGGATACATATGCAGCTATAGATTTTGTTCAGTATGAAGTAGATAGACGTGTTTTATTTGATTATGTTAGTTTAGTCAAATTAATTGTTGAACTCGTTATTGGTTATTCATTATATACAGTATGGTTTTATCCATTATTTTGTCTTATTGGTTTACAATTATTTACTACATGGTTGCCTGATTTGTTTATGTTAGAAACTATGCATTGGTTGATTAGATTTATTGTATTTGTAGCTAATATGTTACCTGCTTTTGTCTTGTTGCGGTTTTATATAGTTGTTACTGCTATGTATAAAGTAGTTGGTTTTATTAGGCATATTGTTTATGGTTGTAATAAAGCTGGTTGTTTATTTTGTTATAAACGAAATTGTAGTGTTCGTGTTAAGTGTAGTACTATTGTTGGTGGTGTAATTCGTTATTATGATATTACTGCTAATGGTGGTACTGGTTTTTGTGTTAAACATCAATGGAATTGTTTTAATTGCCATTCTTTTAAACCAGGTAACACTTTTATAACTGTAGAAGCTGCTATAGAACTTTCTAAAGAGCTTAAACGACCTGTAAATCCAACTGATGCTTCACATTATGTAGTTACTGATATTAAGCAAGTTGGTTGTATGATGCGTTTGTTTTATGATAGAGATGGACAGCGTGTTTACGATGATGTTGATGCTAGTTTATTTGTAGATATTAATAATCTGTTACATTCTAAAGTTAAAGTTGTTCCTAATTTGTATGTAGTTGTAGTAGAGAGTGATGCTGATAGAGCTAATTTTCTGAATGCTGTTGTGTTTTATGCACAATCATTGTATAGGCCTATATTACTTGTAGATAAAAAGTTAATTACTACAGCTTGTAATGGTATCTCTGTAACCCAGACTATGTTTGATGTTTATGTTGATACTTTTATGTCTCATTTTGATGTTGATAGAAAGAGTTTTAATAATTTTGTTAACATTGCTCATGCTTCTCTTAGAGAGGGTGTGCAATTAGAAAAGGTTTTAGATACTTTTGTGGGATGTGTACGTAAATGTTGTTCCATTGATTCAGATGTTGAAACAAGATTTATTACTAAATCTATGATATCTGCAGTAGCTGCTGGTTTGGAATTTACTGATGAAAATTATAACAATTTGGTACCTACATATTTAAAGAGTGATAATATTGTAGCTGCTGATTTAGGTGTTCTTATACAGAATGGTGCTAAGCATGTACAGGGTAATGTTGCTAAGGCAGCTAATATTTCTTGTATATGGTTTATTGATGCTTTTAATCAACTTACTGCTGATTTACAGCATAAATTAAAAAAAGCATGTGTTAAAACTGGCTTGAAGTTAAAATTGACTTTTAATAAGCAAGAGGCAAGTGTCCCTATTCTTACAACACCCTTTTCACTTAAAGGAGGTGTTGTATTGAGTAATTTGTTATATATATTATTTTTTATTAGTTTAATCTGTTTTATATTATTGTGGGCTTTACTGCCTACATATAGTGTTTATAAGTCTGATATTCATTTGCCTGCTTATGCTAGTTTTAAAGTTATTGATAATGGTGTTGTTAGAGATATTTCAGTTAATGATTTATGTTTTGCTAATAAATTTTTCCAATTTGATCAATGGTATGAGTCCACTTTTGGGTCTGTTTACTATCATAATTCTATGGATTGCCCTATTGTAGTGGCAGTTATGGATGAAGATATTGGTTCTACTATGTTTAATGTTCCTACTAAAGTTTTGAGACATGGCTTTCATGTTTTACATTTTTTAACTTATGCATTTGCTAGTGATAGTGTTCAGTGCTATACACCACATATTCAGATTTCTTATAATGATTTTTATGCTAGTGGTTGTGTTTTATCATCTTTGTGTACTATGTTTAAAAGAGGTGATGGTACACCACATCCTTATTGTTATTCAGATGGTGTTATGAAGAATGCTTCTTTGTATACATCTTTGGTTCCACATACACGTTATAGCCTTGCTAATTCTAACGGTTTTATAAGATTTCCTGATGTTATTAGTGAAGGTATTGTACGTATTGTAAGAACGCGCTCTATGACTTATTGTAGAGTGGGTGCATGTGAATACGCCGAAGAGGGTATATGTTTTAATTTTAATAGTTCCTGGGTTTTGAATAATGATTATTATAGAAGTATGCCTGGAACTTTTTGTGGTAGAGATCTTTTTGATTTATTTTATCAATTTTTTAGTAGTTTAATTCGTCCTATAGATTTCTTTTCTCTTACTGCTAGTTCTATTTTTGGAGCTATATTGGCTATAGTTGTTGTCTTGGTTTTTTATTATTTAATAAAACTTAAGCGTGCTTTTGGAGATTATACTAGTGTTGTAGTTATAAATGTTGTTGTTTGGTGTATTAATTTTCTTATGCTTTTTGTTTTTCAAGTTTATCCTATTTGTGCATGTGTTTATGCTTGTTTTTATTTTTATGTAACATTGTATTTTCCTTCTGAAATTAGTGTAATTATGCATTTGCAATGGATTGTTATGTATGGTGCTATAATGCCTTTTTGGTTTTGTGTCACATATGTAGCTATGGTTATTGCAAACCATGTTTTATGGTTATTTTCATATTGTAGGAAAATTGGTGTTAATGTATGTAGTGATAGTACATTTGAAGAAACATCTCTTACTACTTTTATGATTACTAAAGATTCTTATTGTAGATTAAAGAATTCTGTTTCTGATGTTGCCTACAATAGATATTTGAGTTTGTATAATAAGTATCGTTACTATAGTGGTAAAATGGATACTGCTGCCTATAGAGAAGCGGCGTGTTCTCAGTTAGCTAAGGCTATGGAAACATTTAATCACAATAATGGTAATGATGTCTTATATCAACCTCCTACAGCATCTGTTTCTACATCTTTTTTGCAATCAGGTATTGTAAAGATGGTATCTCCTACGTCAAAAATTGAACCTTGTATTGTTAGTGTTACTTATGGTAGTATGACTTTGAATGGTTTATGGTTAGATGACAAAGTTTATTGTCCTCGTCATGTTATATGTTCATCCTCTAATATGAATGAACCTGATTATTCTGCCTTATTGTGTAGAGTTACTCTAGGTGATTTTACTATAATGTCTGGTCGGATGAGTTTAACAGTTGTGTCTTACCAGATGCAGGGCTGTCAACTTGTTTTGACAGTCTCTTTACAAAATCCTTACACTCCAAAATATACTTTTGGTAATGTTAAACCTGGTGAAACTTTTACTGTTTTAGCTGCGTATAATGGCCGACCACAAGGGGCATTTCATGTTACTATGCGTAGTAGTTATACTATTAAAGGTTCTTTTTTGTGTGGGTCATGTGGATCTGTTGGTTATGTATTAACAGGTGATAGTGTTAAGTTTGTATATATGCATCAATTAGAGCTCAGTACTGGTTGTCACACTGGCACTGATTTTACTGGTAATTTTTATGGTCCATATAGAGATGCTCAAGTTGTACAGTTGCCAGTTAAGGACTATGTCCAGACTGTTAATGTTATTGCTTGGCTCTATGCAGCTATACTTAATAATTGTGCTTGGTTTGTACAAAATGATGTTTGTTCTACTGAAGATTTTAATGTTTGGGCTATGGCAAATGGTTTTAGCCAAGTAAAAGCAGATCTTGTTTTAGATGCTTTGGCTTCAATGACAGGTGTTTCTATTGAAACTTTATTGGCTGCTATTAAGCGTCTATATATGGGATTTCAAGGTCGTCAAATACTAGGAAGTTGTACTTTTGAAGATGAATTGGCACCTTCTGACGTTTATCAACAATTGGCTGGTGTTAAATTGCAATCTAAAACAAAAAGATTTATTAAAGAAACAATTTATTGGATTTTGATATCTACATTTTTGTTTAGTTGTATAATTTCTGCATTTGTTAAATGGACTATATTTATGTATATTAATACACATATGATTGGTGTTACATTATGTGTACTTTGTTTTGTTAGTTTTATGATGTTACTAGTTAAACATAAGCATTTTTATTTGACTATGTATATAATTCCTGTACTCTGTACCTTGTTTTATGTAAATTATTTAGTTGTTTATAAAGAAGGTTTTAGAGGTTTTACTTATGTCTGGCTCTCATATTTTGTTCCTGCTGTGAATTTTACTTATGTTTATGAAGTATTTTATGGTTGTATTTTATGTGTTTTTGCTATTTTTATAACTATGCATAGTATTAATCATGACATTTTTTCTTTGATGTTTTTGGTTGGTAGAATAGTTACTTTAATTTCTATGTGGTATTTTGGGTCGAATTTAGAAGAGGATGTTTTGTTATTTATTACAGCCTTTTTAGGTACTTATACATGGACCACTATTTTGTCATTAGCTATAGCAAAAATTGTTGCTAATTGGTTGTCTGTTAATATATTTTATTTTACAGATGTACCTTATATTAAATTGATTCTTTTGAGTTACTTATTTATAGGGTATATTTTATCTTGTTATTGGGGATTTTTCTCTCTTTTAAACAGTGTTTTTAGAATGCCTATGGGTGTTTATAATTATAAAATTTCTGTTCAAGAATTGCGTTATATGAATGCTAATGGCTTACGTCCACCTCGTAATAGTTTTGAGGCTATTTTGTTAAATTTAAAACTGCTTGGAATAGGTGGCGTGCCAGTTATTGAAGTCTCTCAAATTCAATCAAAATTGACTGATGTGAAATGTGCTAATGTTGTTTTGTTAAATTGTTTACAGCATTTGCATGTTGCTTCTAATTCTAAGTTGTGGCAGTATTGTAGTGTTTTACATAATGAAATACTATCTACTTCAGATTTGAGTGTAGCTTTTGATAAGCTTGCTCAACTATTGATTGTTTTATTCGCCAATCCTGCTGCAGTTGATACTAAGTGTCTTGCAAGTATAGATGAAGTTAGCGATGATTATGTTCAAGATAGTACCGTTTTGCAGGCTTTGCAAAGTGAGTTTGTAAATATGGCTAGTTTTGTTGAATATGAAGTCGCAAAGAAAAATTTGGCTGATGCTAAAAATAGTGGTTCTGTTAATCAACAACAGATAAAACAGTTAGAAAAAGCATGTAATATAGCTAAGTCTGTGTATGAACGCGATAAAGCTGTAGCTCGCAAACTTGAACGTATGGCAGACCTAGCACTTACTAACATGTATAAAGAGGCTCGGATTAATGATAAGAAGAGTAAAGTTGTTTCCGCTTTGCAGACAATGCTTTTTAGCATGGTTCGTAAATTGGATAATCAGGCTTTAAATTCTATTCTGGATAATGCTGTTAAAGGTTGTGTACCTTTGAGTGCTATTCCAGCATTGGCTGCTAATACTTTAACTATAATAATACCAGATAAACAAGTTTTTGATAAAGTTGTTGATAATGTTTATGTTACATATGCTGGTAGTGTATGGCATATACAGACTGTTCAAGATGCTGATGGTATTAATAAACAGTTAACTGATATTAGTGTTGATTCTAATTGGCCTCTTGTTATCATTGCTAACAGGTATAATGAAGTTGCTAATGCTGTTATGCAGAATAATGAGTTGATGCCTCATAAATTAAAAATACAAGTTGTTAATAGTGGTTCTGATATGAATTGTAATATTCCTACTCAATGTTATTATAATAATGGTAGTAGTGGTAGAATAGTTTATGCTGTTCTTAGTGATGTTGATGGTCTTAAGTATACTAAGATAATGAAAGATGATGGAAATTGTGTTGTTTTAGAGCTTGATCCTCCTTGTAAATTTTCTATACAAGATGTTAAGGGACTTAAAATTAAGTATCTTTATTTTATTAAAGGATGTAACACTTTAGCTAGAGGGTGGGTTGTTGGTACTTTATCTTCAACAATTAGATTGCAGGCTGGTGTTGCTACTGAGTATGCAGCTAATTCTTCTATACTTTCATTATGTGCATTTTCTGTAGATCCTAAGAAAACTTATTTAGATTATATACAACAAGGTGGTGTACCTATAATTAATTGTGTTAAAATGCTCTGTGATCATGCTGGTACTGGTATGGCCATTACTATTAAACCTGAGGCTACTATTAACCAAGATTCTTATGGTGGTGCCTCTGTTTGTATTTATTGCCGTGCACGTGTAGAGCATCCAGATGTAGATGGTATATGTAAATTACGTGGTAAATTTGTACAAGTCCCTTTGGGTATAAAAGACCCTATTCTTTATGTGTTAACACATGATGTTTGTCAAGTCTGTGGTTTTTGGAGAGATGGCAGTTGTTCCTGTGTAGGTTCAAGTGTCGCTGTTCAATCTAAAGATTTAAATTTTTTAAACGGGTTCGGGGTACTAGTGTGAATGCCCGGCTAGTACCCTGTGCTAGTGGTTTATCTACTGATGTTCAATTAAGGGCATTTGACATTTGTAATACCAATAGAGCTGGTATAGGTTTATATTATAAAGTGAATTGTTGCCGTTTTCAGCGTATAGATGACGACGGTAATAAATTGGATAAGTTCTTTGTTGTCAAAAGAACTAATTTAGAAGTTTATAATAAAGAGAAAACTTATTATGAGTTGACTAAAAGTTGTGGTGTTGTGGCTGAACATGATTTCTTTACATTTGATATTGATGGTAGTCGCGTGCCACATATAGTTCGTAGGAATCTTTCAAAGTATACTATGTTAGATCTTTGCTATGCATTGCGTCATTTTGATCGTAATGATTGTTCAATATTGTGTGAAATTCTTTGCGAGTATGCTGATTGTAAAGAATCCTACTTTTCTAAGAAAGATTGGTATGATTTTGTTGAAAATCCTGATATTATTAATATATATAAAAAATTAGGCCCTATTTTTAATAGAGCTTTACTTAATACTGTCATTTTTGCAGACACCTTAGTTGAAGTAGGTTTAGTTGGTGTTTTAACTTTAGATAACCAAGATTTGTATGGTCAATGGTATGATTTTGGTGATTTTATACAAACAGCCCCAGGATTTGGTGTGGCAGTCGCAGATTCTTACTATTCTTATATGATGCCTATGTTGACTATGTGTCATGTATTAGATTGTGAATTATTTGTTAATGATAGTTATAGACAATTCGATCTTGTGCAGTATGATTTTACTGATTACAAGTTAGAGTTGTTTAATAAGTATTTTAAGTATTGGGGTATGAAGTATCATCCTAATACTGTGGATTGTGATAATGATAGGTGTATTATTCATTGTGCTAATTTTAATATACTATTTAGTATGGTTTTACCTAATACTTGTTTTGGTCCCCTTGTTAGACAAATTTTTGTAGATGGTGTACCGTTTGTTGTTTCTATTGGTTACCATTACAAAGAGTTAGGTGTAGTTATGAACTTAGATGTTGACACACACCGTTATCGTTTGTCTCTTAAAGATTTACTTCTTTATGCAGCAGATCCTGCTATGCATGTTGCATCTGCTAGTGCTCTGCTTGATTTACGAACTTGTTGTTTTAGTGTAGCTGCCATTACAAGTGGTATAAAATTTCAAACTGTAAAACCAGGTAACTTTAACCAAGACTTTTACGAGTTTGTTAAAAGTAAAGGCTTGTTTAAAGAGGGTAGTACAGTTGATTTGAAACATTTTTTCTTTACTCAAGATGGTAATGCTGCAATTACTGATTATAATTATTATAAGTATAATTTACCTACTATGGTTGATATTAAGCAGTTATTGTTTGTATTAGAAGTTGTTTATAAATATTTTGAAATTTATGATGGTGGTTGTATACCAGCATCACAAGTTATTGTTAATAATTATGATAAAAGTGCCGGTTATCCATTTAATAAATTTGGTAAAGCCAGACTTTATTATGAGGCATTATCATTTGAAGAACAGAATGAAATTTATGCATATACTAAACGTAATGTTCTGCCCACCTTAACTCAAATGAATTTAAAATATGCTATCAGTGCTAAGAATAGAGCTCGCACTGTAGCAGGTGTTTCTATTCTTAGTACTATGACAGGCCGAATGTTCCATCAAAAATGTTTGAAGAGTATAGCAGCTACCCGAGGTGTTCCTGTTGTTATAGGAACCACTAAATTTTATGGTGGTTGGGACGATATGTTACGTCATCTTATAAAGGATGTTGACAACCCTGTTCTTATGGGTTGGGATTATCCTAAATGTGATCGTGCTATGCCAAATATTTTGCGTATTGTTAGTAGTTTAGTTTTGGCCCGCAAACATGAATTTTGTTGTTCACATGGTGATAGATTTTATCGCCTTGCGAATGAATGTGCTCAAGTTTTGAGTGAAATAGTTATGTGTGGCGGTTGCTATTATGTTAAGCCTGGTGGTACTAGCAGTGGTGATGCAACTACTGCTTTTGCTAATTCTGTTTTTAATATATGTCAGGCTGTTACTGCTAACGTTTGTTCTCTTATGGCCTGTAATGGCCATAAGATTGAAGATTTAAGTATACGCAATTTACAAAAACGCTTATACTCTAATGTTTATCGTACAGATTATGTTGATTATACATTTGTTAATGAGTATTATGAATTTTTATGTAAGCATTTTAGTATGATGATTTTGAGTGATGATGGTGTTGTCTGTTATAACTCTGATTATGCTAGTAAGGGTTATATAGCTAATATAAGTGTTTTTCAACAAGTTTTGTACTATCAGAATAATGTTTTTATGTCTGAATCTAAATGTTGGGTTGAAAATGATATTACTAATGGTCCTCATGAATTTTGTTCCCAACATACTATGTTGGTTAAGATAGATGGTGATTATGTTTATTTACCATATCCAGATCCTTCTAGAATTCTAGGAGCTGGTTGTTTTGTTGATGATTTATTGAAGACTGACAGTGTTCTTTTGATAGAGCGCTTTGTAAGTCTAGCTATAGATGCTTACCCTTTAGTATATCATGAAAATGAAGAATACCAAAAAGTCTTTCGTGTATATTTAGAATATATAAAAAAACTGTATAATGATCTTGGTACTCAGATCTTAGATAGTTATAGTGTTATTTTAAGTACTTGTGATGGTTTAAAGTTTACTGAAGAATCATTTTACAAGAATATGTATTTAAAAAGTGCCGTGATGCAGAGTGTAGGTGCATGTGTTGTTTGTTCATCACAAACTTCTTTGCGTTGTGGCAGTTGTATACGTAAGCCTTTGTTATGTTGTAAATGTTGTTATGACCATGTTATGGCAACTAATCATAAATATGTTTTGAGTGTCTCACCTTACGTTTGTAATGCACCTAACTGTGATGTGAGTGATGTCACCAAATTATATTTGGGTGGTATGTCTTACTATTGTGAAAACCATAAACCCCATTATTCATTTAAGTTAGTTATGAATGGTATGGTCTTTGGTTTGTATAAACAATCTTGTACGGGTTCACCTTATATAGATGATTTTAATAAGATAGCTAGTTGTAAATGGACAGAAGTTGATGATTATGTTCTGGCAAATGAGTGTATTGAACGTTTAAAGTTATTTGCTGCAGAAACTCAAAAGGCAACTGAAGAGGCTTTTAAACAAAGCTATGCTTCTGCTACCATTCAAGAGATTGTTAGTGATAGAGAAGTTATTTTGTGTTGGGAGACAGGTAAAGTTAAACCACCACTTAATAAAAATTATGTTTTCACAGGCTACCATTTTACTAGTACTGGTAAGACAGTTTTAGGTGAGTATGTTTTTGATAAAAGTGAATTAACTAACGGTGTGTATTACCGCGCTACAACTACTTATAAACTTTCTATAGGTGATGTTTTTGTTTTAACATCACATTCTGTAGCTAGTTTAAGTGCACCTACACTTGTCCCACAAGAGAACTATGCTAGTATAAGATTTTCTAGTGTTTATAGTGTTCCATTGGTGTTTCAAAATAATGTTGCTAATTATCAGCACATTGGAATGAAACGTTATTGCACTGTTCAAGGTCCCCCTGGTACGGGAAAGTCTCATCTTGCTATAGGTCTAGCTGTTTATTACTACACAGCACGTGTAGTTTATACTGCTGCTAGTCATGCTGCTGTAGATGCATTGTGTGAAAAAGCTTATAAGTTCTTAAATATTAACGATTGTACACGTATTATTCCTGCTAAAGTTCGTGTAGATTGTTATGATAAGTTTAAAATTAATGATACCACTTGTAAGTATGTTTTTACCACAATAAATGCATTACCAGAGTTGGTTACAGATATTGTTGTTGTTGATGAAGTTAGTATGCTTACTAATTATGAATTGTCTGTTATAAATGCTCGTATTAAAGCTAAACATTATGTATATATTGGAGATCCTGCTCAATTACCTGCACCACGTGTGCTGTTGAGCAAGGGTTCTTTAGAACCTAGGCACTTCAATTCTATTACTAAAATAATGTGTTGTTTAGGTCCTGATATCTTTTTGGGAAATTGTTATAGGTGTCCTAAAGAAATTGTAGAAACTGTTTCAGCATTGGTTTATGATAATAAACTCAAGGCTAAAAATGATAATAGTTCATTATGTTTTAAAGTATATTTTAAGGGACAGACAACACATGAGAGTTCAAGTGCTGTAAATATTCAACAGATATATCTAATTAGTAAATTTTTAAAAGCTAATCCAGTTTGGAATAGTGCTGTTTTTATTAGTCCTTATAATAGTCAGAATTATGTTGCTAAGCGTGTTTTAGGTGTTCAAACACAAACTGTAGATTCTGCTCAAGGTTCGGAATATGATTACGTTATATATTCACAAACAGCAGAAACAGCCCATTCTGTTAATGTTAATCGATTTAATGTTGCCATAACTAGAGCCAAGAAGGGCATTTTTTGTGTTATGAGTAATATGCAATTATTTGAATCTCTTAATTTTATTACTCTACCTTTAGATAAAATTCAAAATCAAACTTTACCTCGTTTGCATTGCACAACTAATCTTTTTAAAGATTGTAGTAAAAGTTGCTTAGGTTATCATCCAGCGCATGCCCCCTCATTTTTAGCAGTTGATGATAAATATAAGGTTAATGAAAATTTGGCTGTAAATTTAAATATTTGTGAACCTGTTTTAACATATTCTCGTTTAATATCTCTTATGGGTTTTAAATTAGATTTGACTCTTGATGGTTATTCTAAATTGTTTATTACTAAAGATGAAGCCATTAAACGTGTTAGAGGTTGGGTTGGTTTTGATGTTGAAGGCGCTCATGCTACTCGCGAAAACATTGGAACAAACTTTCCATTGCAAATAGGTTTTTCAACTGGTGTGGATTTTGTAGTCGAAGCTACTGGCTTATTTGCTGAGAGAGATTGTTATACTTTTAAAAAAACTGTAGCTAAAGCTCCTCCTGGTGAAAAATTTAAACATTTAATACCCCTTATGTCAAAAGGTCAAAAGTGGGATATTGTTAGAATTAGAATTGTTCAAATGTTATCTGATTATCTTTTAGACCTTTCTGATAGTGTAGTATTTATTACTTGGTCTGCCAGTTTTGAACTTACTTGTTTAAGGTATTTTGCTAAATTAGGCAGAGAGCTTAATTGTAATGTGTGTTCTAATCGTGCTACATGCTACAATTCTAGAACTGGTTATTATGGTTGTTGGCGCCATAGTTATACTTGTGATTATGTGTATAATCCACTTATTGTAGATATACAACAGTGGGGTTATACAGGTTCTTTAACTAGTAATCACGATATAATTTGTAATGTACATAAAGGTGCACATGTTGCGTCAGCTGATGCAATTATGACTCGTTGTTTAGCAATCTACGATTGTTTTTGTAAATCTGTTAATTGGAATTTAGAGTATCCAATAATTTCTAATGAGGTCAGTATAAATACATCTTGTAGGTTATTGCAGCGTGTCATGCTTAAAGCTGCCATGCTATGTAATAGATACAACTTATGTTATGACATAGGCAATCCTAAAGGTTTAGCTTGTGTCAAAGATTATGAATTTAAATTTTATGATGCTTTTCCTGTAGCCAAGTCTGTTAAACAGTTATTTTATGTCTATGATGTGCATAAAGATAATTTTAAAGATGGTTTATGTATGTTTTGGAATTGTAATGTTGATAAATATCCATCTAATTCAATTGTTTGTAGATTTGACACTCGAGTTTTAAATAAATTAAACCTTCCTGGATGTAATGGTGGTAGTTTGTATGTTAATAAACATGCATTCCATACTAATCCTTTTACTAGAACTGTTTTTGAAAATCTTAAGCCTATGCCTTTTTTCTATTATTCAGATACGCCTTGTGTGTACGTAGATGGTTTAGAATCTAAACAAGTTGATTACGTTCCTTTAAGAAGCGCCACTTGTATCACACGGTGTAATCTAGGTGGAGCTGTTTGTTCAAAGCATGCTGAAGAATATTGTAACTACCTTGAGTCTTATAATATAGTTACTACAGCAGGCTTTACTTTTTGGGTTTATAAGAATTTTGATTTTTATAATTTATGGAACACTTTTACTACGTTACAGAGTTTAGAAAACGTAATATATAACTTGGTTAATGTTGGTCATTATGATGGACGTACAGGTGAATTACCTTGTGCTATTATGAATGACAAAGTTGTTGTTAAGATTAATAATGTAGATACTGTTATTTTTAAAAATAATACATCATTTCCTACTAATATAGCTGTTGAATTGTTTACAAAACGTAGTATTCGGCACCACCCTGAACTTAAGATTCTTAGAAATTTGAACATTGATATTTGTTGGAAGCATGTCCTGTGGGATTATGTTAAAGATAGTTTGTTTTGTAGTTCCACTTATGGTGTTTGTAAATACACAGATTTGAAGTTCATCGAAAATTTGAATATACTTTTTGATGGTCGTGACACTGGCGCTTTAGAAGCTTTTAGAAAAGCAAGAAATGGTGTTTTTATTAGTACTGAAAAATTAAGTAGGTTATCAATGATTAAAGGTCCGCAACGAGCTGATTTAAATGGTGTGATTGTGGATAAAGTTGGAGAACTCAAAGTTGAGTTTTGGTTCGCTATGAGAAAAGATGGTGACGATGTTATCTTCAGCCGAACAGACAGCCTATGCTCAAGCCATTACTGGAGCCCACAAGGTAATCTAGGTGGTAATTGCGCGGGTAATGTCATTGGTAATGATGCTCTAACACGTTTTACTATCTTTACTCAGAGTCGTGTATTGTCAAGTTTTGAACCTCGCTCAGATTTAGAACGGGATTTTATTGATATGGATGATAATCTGTTTATTGCTAAATATGGTTTAGAAGACTATGCATTTGATCATATAGTTTATGGTAGTTTTAACCATAAAGTTATAGGAGGTTTGCATTTGCTTATAGGCTTATTTCGTAGGCTAAAAAAATCTAATTTGTTAATTCAAGAGTTTTTACAGTATGATTCTAGTATTCATTCATATTTTATTACTGATCAGGAGTGTGGTAGTAGTAAGAGTGTTTGTACAGTTATTGATTTATTATTAGATGATTTTGTTTCTATTGTTAAGTCATTAAATTTGAGTTGTGTTAGTAAAGTTGTTAATATTAATGTTGATTTTAAGGATTTTCAATTTATGTTGTGGTGTAATGATAATAAAATTATGACTTTTTATCCTAAAATGCAAGCCACTAATGATTGGAAACCTGGCTATTCTATGCCTGTTTTGTATAAGTATTTGAATGTTCCATTAGAGAGAGTCTCTTTATGGAATTATGGTAAACCTATTAATTTGCCTACAGGCTGTATGATGAATGTTGCTAAGTACACTCAATTATGTCAGTATTTGAATACTACAACATTAGCTGTTCCTGTTAATATGCGTGTTTTACATTTAGGTGCAGGGTCTGATAAAGAAGTAGCTCCAGGTTCTGCTGTTTTAAGACAGTGGTTACCATCTGGTAGTATTCTTGTAGATAATGATTTAAACCCATTTGTTAGCGATAGTTTAGTTACTTATTTTGGAGATTGTATGACTTTACCATTTGATTGTCATTGGGATTTGATAATATCTGATATGTATGATCCTCTTACTAAAAATATTGGTGATTATAATGTGAGTAAGGATGGTTTTTTTACTTACATTTGTCATTTAATTCGTGATAAATTATCTTTGGGTGGTAGTGTAGCTATAAAAATTACAGAGTTTTCTTGGAATGCTGATTTATATAAATTAATGAGTTGTTTTGCATTTTGGACAGTTTTTTGTACTAATGTAAATGCTTCTTCTAGTGAAGGGTTTTTAATAGGTATAAATTACCTGGGTAAATCTTCTTTTGAAATAGATGGCAATGTTATGCATGCTAACTATTTGTTTTGGAGAAATAGTACAACATGGAATGGCGGTGCTTATAGTTTATTTGATATGACTAAATTTTCTTTGAAATTGGCTGGCACTGCTGTTGTTAATTTAAGACCAGATCAATTAAATGATTTAGTTTATTCTCTTATTGAAAGAGGTAAATTATTAGTTCGCGATACGCGTAAAGAGATTTTTGTTGGTGATAGTCTTGTAAATACTTGTTAG
Protein
MIKTSKYGLGFKWAPEFRWLLPDAAEELASPMKSDEGGLCPSTGQAMESVGFVYDNHVKIDCRCILGQEWHVQSNLIRDIFVHEDLHVVEVLTKTAVKSGTAILIKSPLHSLGGFPKGYVMGLFRSYKTKRYVVHHLSMTTSTTNFGEDFLGWIVPFGFMPSYVHKWFQFCRLYIEESDLIISNFKFDDYDFSVEDAYAEVHAEPKGKYSQKAYALLRQYRGIKPVLFVDQYGCDYSGKLADCLQAYGHYSLQDMRQKQSVWLANCDFDIVVAWHVVRDSRFVMRLQTIATICGIKYVAQPTEDVVDGDVVIREPVHLLSADAIVLKLPSLMKVMTHMDDFSIKSIYNVDLCDCGFVMQYGYVDCFNDNCDFYGWVSGNMMDGFSCPLCCTVYDSSEVKAQSSGVIPENPVLFTNSTDTVNHDSFNLYGYSVTPFGSCIYWSPRPGLWIPIIKSSVKSYDDLVYSGVVGCKSIVKETALITHALYLDYVQCKCGNLEQNHILGVNNSWCRQLLLNRGDYNMLLKNIDLFVKRRADFACKFAVCGDGFVPFLLDGLIPRSYYLIQSGIFFTSLMSQFSQEVSDMCLKMCILFMDRVSVATFYIEHYVNRLVTQFKLLGTTLVNKMVNWFNTMLDASAPATGWLLYQLLNGLFVVSQANFNFVALIPDYAKILVDKFYTFFKLLLECVTVDVLKDMPVLKTINGLVCIVGNKFYNVSTGLIPGFVLPCNAQEQQIYFFEGVAESVIVEDDVIENVKSSLSSYEYCQPPKSVEKICIIDNMYMGKCGDKFFPIVMNDKNICLLDQAWRFPCAGRKVNFNEKPVVMEIPSLMTVKVMFDLDSTFDDILGKVCSEFEVEKGVTVDDFVAVVCDAIENALNSCKEHPVVGYQVRAFLNKLNENVVYLFDEAGDEAMASRMYCTFAIEDVEDVISSEVVEDTIDGVVEDTINDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDEDVVTGDNDDDNDDQIVVIGDDVDDIDTINCESIYEFDTYKALLVFNDVYNDALFVSYGSSVETETYFKVKGLWSPTITHTNCWLRSVLLVMQKLPFKFKDLAIENMWLSYKVGYNQRFVDYLLTTIPKAIVLPQGGFVADFAYWFLNQFDINAYANWCCLKCGFSFDLNGLDAVFFYGDIVSHVCKCGYNMTLIAADLPCTLHFSLFDDNFCAFCTPKKNFIAACAVDVNVCHSVAVIGDEQIDGKFVTKFSGDKFDFIVGYGMSFSMSSFELAQLYGLCITPNVCFVKGDIINVARLVKADVIVNPANGHMLHGGGVAKAIAVAAGKKFSKETAAMVKSKGVCQVGDCYVSTGGKLCKTILNIVGPDARQDGRQSYVLLARAYKHLNKYDCCLSTLISAGIFSVPADVSLTYLLGVVDKQVILVSNNKEDFDIIQKCQITSVVGTKALAVRLTANVGRVIKFETDAYKLFLSGDDCFVSNSSVIQEVLLLRHDIQLNNDVRDYLLSKMTSLPKDWRLINKFDVINGVKTVKYFECPNSIYICSQGKDFGYVCDGSFYKATVNQVCVLLAKKIDVLLTVDGVNFKSISLTVGEVFGKILGNVFCDGIDVTKLKCSDFYADKILYQYENLSLADISAVQSSFGFDQQQLLAYYNFLTVCKWSVVVNGPFFSFEQSHNNCYVNVACLMLQHINLKFNKWQWQEAWYEFRAGRPHRLVALVLAKGHFKFDEPSDATDFIRVVLKQADLSGAICELELICDCGIKQESRVGVDAVMHFGTLAKTDLFNGYKIGCNCAGRIVHCTKLNVPFLICSNTPLSKDLPDDVVAANMFMGVGVGHYTHLKCGSPYQHYDACSVKKYTGVSGCLTDCLYLKNLTQTFTSMLTNYFLDDVEMVAYNPDLSQYYCDNGKYYTKPIIKAQFKPFAKVNGVYTNFKLVGHDICAQLNDKLGFNVDLPFVEYKVTVWPVATGDVVLASDDLYVKRYFKGCETFGKPVIWFCHDEASLNSLTYFNKPSFKSENRYSVLSVDSVSEESQGNVVTSVMESQISTKEVKLKGVRKTVKIEDAIIVNDENSSIKVVKSLSLVDVWDMYLTGCDYVVWVANELSRLVKSPTVREYIRYGIKPITIPIDLLCLRDDNQTLLVPKIFKARAIEFYGFLKWLFIYVFNLLHFTNDKTIFYTTEIASKFTFNLFCLALKNAFQTFRWSIFIKGFLVVATVFLFWFNFLYINVIFSDFYLPNISVFPIFVGRIVMWIKATFGLVTICDFYSKLGVGFTSHFCNGSFICELCYSGFDMLDTYAAIDFVQYEVDRRVLFDYVSLVKLIVELVIGYSLYTVWFYPLFCLIGLQLFTTWLPDLFMLETMHWLIRFIVFVANMLPAFVLLRFYIVVTAMYKVVGFIRHIVYGCNKAGCLFCYKRNCSVRVKCSTIVGGVIRYYDITANGGTGFCVKHQWNCFNCHSFKPGNTFITVEAAIELSKELKRPVNPTDASHYVVTDIKQVGCMMRLFYDRDGQRVYDDVDASLFVDINNLLHSKVKVVPNLYVVVVESDADRANFLNAVVFYAQSLYRPILLVDKKLITTACNGISVTQTMFDVYVDTFMSHFDVDRKSFNNFVNIAHASLREGVQLEKVLDTFVGCVRKCCSIDSDVETRFITKSMISAVAAGLEFTDENYNNLVPTYLKSDNIVAADLGVLIQNGAKHVQGNVAKAANISCIWFIDAFNQLTADLQHKLKKACVKTGLKLKLTFNKQEASVPILTTPFSLKGGVVLSNLLYILFFISLICFILLWALLPTYSVYKSDIHLPAYASFKVIDNGVVRDISVNDLCFANKFFQFDQWYESTFGSVYYHNSMDCPIVVAVMDEDIGSTMFNVPTKVLRHGFHVLHFLTYAFASDSVQCYTPHIQISYNDFYASGCVLSSLCTMFKRGDGTPHPYCYSDGVMKNASLYTSLVPHTRYSLANSNGFIRFPDVISEGIVRIVRTRSMTYCRVGACEYAEEGICFNFNSSWVLNNDYYRSMPGTFCGRDLFDLFYQFFSSLIRPIDFFSLTASSIFGAILAIVVVLVFYYLIKLKRAFGDYTSVVVINVVVWCINFLMLFVFQVYPICACVYACFYFYVTLYFPSEISVIMHLQWIVMYGAIMPFWFCVTYVAMVIANHVLWLFSYCRKIGVNVCSDSTFEETSLTTFMITKDSYCRLKNSVSDVAYNRYLSLYNKYRYYSGKMDTAAYREAACSQLAKAMETFNHNNGNDVLYQPPTASVSTSFLQSGIVKMVSPTSKIEPCIVSVTYGSMTLNGLWLDDKVYCPRHVICSSSNMNEPDYSALLCRVTLGDFTIMSGRMSLTVVSYQMQGCQLVLTVSLQNPYTPKYTFGNVKPGETFTVLAAYNGRPQGAFHVTMRSSYTIKGSFLCGSCGSVGYVLTGDSVKFVYMHQLELSTGCHTGTDFTGNFYGPYRDAQVVQLPVKDYVQTVNVIAWLYAAILNNCAWFVQNDVCSTEDFNVWAMANGFSQVKADLVLDALASMTGVSIETLLAAIKRLYMGFQGRQILGSCTFEDELAPSDVYQQLAGVKLQSKTKRFIKETIYWILISTFLFSCIISAFVKWTIFMYINTHMIGVTLCVLCFVSFMMLLVKHKHFYLTMYIIPVLCTLFYVNYLVVYKEGFRGFTYVWLSYFVPAVNFTYVYEVFYGCILCVFAIFITMHSINHDIFSLMFLVGRIVTLISMWYFGSNLEEDVLLFITAFLGTYTWTTILSLAIAKIVANWLSVNIFYFTDVPYIKLILLSYLFIGYILSCYWGFFSLLNSVFRMPMGVYNYKISVQELRYMNANGLRPPRNSFEAILLNLKLLGIGGVPVIEVSQIQSKLTDVKCANVVLLNCLQHLHVASNSKLWQYCSVLHNEILSTSDLSVAFDKLAQLLIVLFANPAAVDTKCLASIDEVSDDYVQDSTVLQALQSEFVNMASFVEYEVAKKNLADAKNSGSVNQQQIKQLEKACNIAKSVYERDKAVARKLERMADLALTNMYKEARINDKKSKVVSALQTMLFSMVRKLDNQALNSILDNAVKGCVPLSAIPALAANTLTIIIPDKQVFDKVVDNVYVTYAGSVWHIQTVQDADGINKQLTDISVDSNWPLVIIANRYNEVANAVMQNNELMPHKLKIQVVNSGSDMNCNIPTQCYYNNGSSGRIVYAVLSDVDGLKYTKIMKDDGNCVVLELDPPCKFSIQDVKGLKIKYLYFIKGCNTLARGWVVGTLSSTIRLQAGVATEYAANSSILSLCAFSVDPKKTYLDYIQQGGVPIINCVKMLCDHAGTGMAITIKPEATINQDSYGGASVCIYCRARVEHPDVDGICKLRGKFVQVPLGIKDPILYVLTHDVCQVCGFWRDGSCSCVGSSVAVQSKDLNFLNRVRGTSVNARLVPCASGLSTDVQLRAFDICNTNRAGIGLYYKVNCCRFQRIDDDGNKLDKFFVVKRTNLEVYNKEKTYYELTKSCGVVAEHDFFTFDIDGSRVPHIVRRNLSKYTMLDLCYALRHFDRNDCSILCEILCEYADCKESYFSKKDWYDFVENPDIINIYKKLGPIFNRALLNTVIFADTLVEVGLVGVLTLDNQDLYGQWYDFGDFIQTAPGFGVAVADSYYSYMMPMLTMCHVLDCELFVNDSYRQFDLVQYDFTDYKLELFNKYFKYWGMKYHPNTVDCDNDRCIIHCANFNILFSMVLPNTCFGPLVRQIFVDGVPFVVSIGYHYKELGVVMNLDVDTHRYRLSLKDLLLYAADPAMHVASASALLDLRTCCFSVAAITSGIKFQTVKPGNFNQDFYEFVKSKGLFKEGSTVDLKHFFFTQDGNAAITDYNYYKYNLPTMVDIKQLLFVLEVVYKYFEIYDGGCIPASQVIVNNYDKSAGYPFNKFGKARLYYEALSFEEQNEIYAYTKRNVLPTLTQMNLKYAISAKNRARTVAGVSILSTMTGRMFHQKCLKSIAATRGVPVVIGTTKFYGGWDDMLRHLIKDVDNPVLMGWDYPKCDRAMPNILRIVSSLVLARKHEFCCSHGDRFYRLANECAQVLSEIVMCGGCYYVKPGGTSSGDATTAFANSVFNICQAVTANVCSLMACNGHKIEDLSIRNLQKRLYSNVYRTDYVDYTFVNEYYEFLCKHFSMMILSDDGVVCYNSDYASKGYIANISVFQQVLYYQNNVFMSESKCWVENDITNGPHEFCSQHTMLVKIDGDYVYLPYPDPSRILGAGCFVDDLLKTDSVLLIERFVSLAIDAYPLVYHENEEYQKVFRVYLEYIKKLYNDLGTQILDSYSVILSTCDGLKFTEESFYKNMYLKSAVMQSVGACVVCSSQTSLRCGSCIRKPLLCCKCCYDHVMATNHKYVLSVSPYVCNAPNCDVSDVTKLYLGGMSYYCENHKPHYSFKLVMNGMVFGLYKQSCTGSPYIDDFNKIASCKWTEVDDYVLANECIERLKLFAAETQKATEEAFKQSYASATIQEIVSDREVILCWETGKVKPPLNKNYVFTGYHFTSTGKTVLGEYVFDKSELTNGVYYRATTTYKLSIGDVFVLTSHSVASLSAPTLVPQENYASIRFSSVYSVPLVFQNNVANYQHIGMKRYCTVQGPPGTGKSHLAIGLAVYYYTARVVYTAASHAAVDALCEKAYKFLNINDCTRIIPAKVRVDCYDKFKINDTTCKYVFTTINALPELVTDIVVVDEVSMLTNYELSVINARIKAKHYVYIGDPAQLPAPRVLLSKGSLEPRHFNSITKIMCCLGPDIFLGNCYRCPKEIVETVSALVYDNKLKAKNDNSSLCFKVYFKGQTTHESSSAVNIQQIYLISKFLKANPVWNSAVFISPYNSQNYVAKRVLGVQTQTVDSAQGSEYDYVIYSQTAETAHSVNVNRFNVAITRAKKGIFCVMSNMQLFESLNFITLPLDKIQNQTLPRLHCTTNLFKDCSKSCLGYHPAHAPSFLAVDDKYKVNENLAVNLNICEPVLTYSRLISLMGFKLDLTLDGYSKLFITKDEAIKRVRGWVGFDVEGAHATRENIGTNFPLQIGFSTGVDFVVEATGLFAERDCYTFKKTVAKAPPGEKFKHLIPLMSKGQKWDIVRIRIVQMLSDYLLDLSDSVVFITWSASFELTCLRYFAKLGRELNCNVCSNRATCYNSRTGYYGCWRHSYTCDYVYNPLIVDIQQWGYTGSLTSNHDIICNVHKGAHVASADAIMTRCLAIYDCFCKSVNWNLEYPIISNEVSINTSCRLLQRVMLKAAMLCNRYNLCYDIGNPKGLACVKDYEFKFYDAFPVAKSVKQLFYVYDVHKDNFKDGLCMFWNCNVDKYPSNSIVCRFDTRVLNKLNLPGCNGGSLYVNKHAFHTNPFTRTVFENLKPMPFFYYSDTPCVYVDGLESKQVDYVPLRSATCITRCNLGGAVCSKHAEEYCNYLESYNIVTTAGFTFWVYKNFDFYNLWNTFTTLQSLENVIYNLVNVGHYDGRTGELPCAIMNDKVVVKINNVDTVIFKNNTSFPTNIAVELFTKRSIRHHPELKILRNLNIDICWKHVLWDYVKDSLFCSSTYGVCKYTDLKFIENLNILFDGRDTGALEAFRKARNGVFISTEKLSRLSMIKGPQRADLNGVIVDKVGELKVEFWFAMRKDGDDVIFSRTDSLCSSHYWSPQGNLGGNCAGNVIGNDALTRFTIFTQSRVLSSFEPRSDLERDFIDMDDNLFIAKYGLEDYAFDHIVYGSFNHKVIGGLHLLIGLFRRLKKSNLLIQEFLQYDSSIHSYFITDQECGSSKSVCTVIDLLLDDFVSIVKSLNLSCVSKVVNINVDFKDFQFMLWCNDNKIMTFYPKMQATNDWKPGYSMPVLYKYLNVPLERVSLWNYGKPINLPTGCMMNVAKYTQLCQYLNTTTLAVPVNMRVLHLGAGSDKEVAPGSAVLRQWLPSGSILVDNDLNPFVSDSLVTYFGDCMTLPFDCHWDLIISDMYDPLTKNIGDYNVSKDGFFTYICHLIRDKLSLGGSVAIKITEFSWNADLYKLMSCFAFWTVFCTNVNASSSEGFLIGINYLGKSSFEIDGNVMHANYLFWRNSTTWNGGAYSLFDMTKFSLKLAGTAVVNLRPDQLNDLVYSLIERGKLLVRDTRKEIFVGDSLVNTC
Summary
Function
The replicase polyprotein of coronaviruses is a multifunctional protein: it contains the activities necessary for the transcription of negative stranded RNA, leader RNA, subgenomic mRNAs and progeny virion RNA as well as proteinases responsible for the cleavage of the polyprotein into functional products.
Inhibits host translation by interacting with the 40S ribosomal subunit. The nsp1-40S ribosome complex further induces an endonucleolytic cleavage near the 5'UTR of host mRNAs, targeting them for degradation. Viral mRNAs are not susceptible to nsp1-mediated endonucleolytic RNA cleavage thanks to the presence of a 5'-end leader sequence and are therefore protected from degradation. By suppressing host gene expression, nsp1 facilitates efficient viral gene expression in infected cells and evasion from host immune response.
May play a role in the modulation of host cell survival signaling pathway by interacting with host PHB and PHB2. Indeed, these two proteins play a role in maintaining the functional integrity of the mitochondria and protecting cells from various stresses.
Responsible for the cleavages located at the N-terminus of the replicase polyprotein. In addition, PL-PRO possesses a deubiquitinating/deISGylating activity and processes both 'Lys-48'- and 'Lys-63'-linked polyubiquitin chains from cellular substrates. Participates together with nsp4 in the assembly of virally-induced cytoplasmic double-membrane vesicles necessary for viral replication. Antagonizes innate immune induction of type I interferon by blocking the phosphorylation, dimerization and subsequent nuclear translocation of host IRF3. Prevents also host NF-kappa-B signaling.
Participates in the assembly of virally-induced cytoplasmic double-membrane vesicles necessary for viral replication.
Proteinase 3CL-PRO: Cleaves the C-terminus of replicase polyprotein at 11 sites. Recognizes substrates containing the core sequence [ILMVF]-Q-|-[SGACN]. Also able to bind an ADP-ribose-1''-phosphate (ADRP).
Plays a role in the initial induction of autophagosomes from host reticulum endoplasmic. Later, limits the expansion of these phagosomes that are no longer able to deliver viral components to lysosomes.
Forms a hexadecamer with nsp8 (8 subunits of each) that may participate in viral replication by acting as a primase. Alternatively, may synthesize substantially longer products than oligonucleotide primers.
Forms a hexadecamer with nsp7 (8 subunits of each) that may participate in viral replication by acting as a primase. Alternatively, may synthesize substantially longer products than oligonucleotide primers.
May participate in viral replication by acting as a ssRNA-binding protein.
Plays a pivotal role in viral transcription by stimulating both nsp14 3'-5' exoribonuclease and nsp16 2'-O-methyltransferase activities. Therefore plays an essential role in viral mRNAs cap methylation.
Responsible for replication and transcription of the viral RNA genome.
Multi-functional protein with a zinc-binding domain in N-terminus displaying RNA and DNA duplex-unwinding activities with 5' to 3' polarity. Activity of helicase is dependent on magnesium.
Enzyme possessing two different activities: an exoribonuclease activity acting on both ssRNA and dsRNA in a 3' to 5' direction and a N7-guanine methyltransferase activity.
Mn(2+)-dependent, uridylate-specific enzyme, which leaves 2'-3'-cyclic phosphates 5' to the cleaved bond.
Methyltransferase that mediates mRNA cap 2'-O-ribose methylation to the 5'-cap structure of viral mRNAs. N7-methyl guanosine cap is a prerequisite for binding of nsp16. Therefore plays an essential role in viral mRNAs cap methylation which is essential to evade immune system.
Inhibits host translation by interacting with the 40S ribosomal subunit. The nsp1-40S ribosome complex further induces an endonucleolytic cleavage near the 5'UTR of host mRNAs, targeting them for degradation. Viral mRNAs are not susceptible to nsp1-mediated endonucleolytic RNA cleavage thanks to the presence of a 5'-end leader sequence and are therefore protected from degradation. By suppressing host gene expression, nsp1 facilitates efficient viral gene expression in infected cells and evasion from host immune response.
May play a role in the modulation of host cell survival signaling pathway by interacting with host PHB and PHB2. Indeed, these two proteins play a role in maintaining the functional integrity of the mitochondria and protecting cells from various stresses.
Responsible for the cleavages located at the N-terminus of the replicase polyprotein. In addition, PL-PRO possesses a deubiquitinating/deISGylating activity and processes both 'Lys-48'- and 'Lys-63'-linked polyubiquitin chains from cellular substrates. Participates together with nsp4 in the assembly of virally-induced cytoplasmic double-membrane vesicles necessary for viral replication. Antagonizes innate immune induction of type I interferon by blocking the phosphorylation, dimerization and subsequent nuclear translocation of host IRF3. Prevents also host NF-kappa-B signaling.
Participates in the assembly of virally-induced cytoplasmic double-membrane vesicles necessary for viral replication.
Proteinase 3CL-PRO: Cleaves the C-terminus of replicase polyprotein at 11 sites. Recognizes substrates containing the core sequence [ILMVF]-Q-|-[SGACN]. Also able to bind an ADP-ribose-1''-phosphate (ADRP).
Plays a role in the initial induction of autophagosomes from host reticulum endoplasmic. Later, limits the expansion of these phagosomes that are no longer able to deliver viral components to lysosomes.
Forms a hexadecamer with nsp8 (8 subunits of each) that may participate in viral replication by acting as a primase. Alternatively, may synthesize substantially longer products than oligonucleotide primers.
Forms a hexadecamer with nsp7 (8 subunits of each) that may participate in viral replication by acting as a primase. Alternatively, may synthesize substantially longer products than oligonucleotide primers.
May participate in viral replication by acting as a ssRNA-binding protein.
Plays a pivotal role in viral transcription by stimulating both nsp14 3'-5' exoribonuclease and nsp16 2'-O-methyltransferase activities. Therefore plays an essential role in viral mRNAs cap methylation.
Responsible for replication and transcription of the viral RNA genome.
Multi-functional protein with a zinc-binding domain in N-terminus displaying RNA and DNA duplex-unwinding activities with 5' to 3' polarity. Activity of helicase is dependent on magnesium.
Enzyme possessing two different activities: an exoribonuclease activity acting on both ssRNA and dsRNA in a 3' to 5' direction and a N7-guanine methyltransferase activity.
Mn(2+)-dependent, uridylate-specific enzyme, which leaves 2'-3'-cyclic phosphates 5' to the cleaved bond.
Methyltransferase that mediates mRNA cap 2'-O-ribose methylation to the 5'-cap structure of viral mRNAs. N7-methyl guanosine cap is a prerequisite for binding of nsp16. Therefore plays an essential role in viral mRNAs cap methylation which is essential to evade immune system.
Catalytic Activity
a ribonucleoside 5'-triphosphate + RNA(n) = diphosphate + RNA(n+1)
ATP + H2O = ADP + H(+) + phosphate
TSAVLQ-|-SGFRK-NH(2) and SGVTFQ-|-GKFKK the two peptides corresponding to the two self-cleavage sites of the SARS 3C-like proteinase are the two most reactive peptide substrates. The enzyme exhibits a strong preference for substrates containing Gln at P1 position and Leu at P2 position.
Thiol-dependent hydrolysis of ester, thioester, amide, peptide and isopeptide bonds formed by the C-terminal Gly of ubiquitin (a 76-residue protein attached to proteins as an intracellular targeting signal).
ATP + H2O = ADP + H(+) + phosphate
TSAVLQ-|-SGFRK-NH(2) and SGVTFQ-|-GKFKK the two peptides corresponding to the two self-cleavage sites of the SARS 3C-like proteinase are the two most reactive peptide substrates. The enzyme exhibits a strong preference for substrates containing Gln at P1 position and Leu at P2 position.
Thiol-dependent hydrolysis of ester, thioester, amide, peptide and isopeptide bonds formed by the C-terminal Gly of ubiquitin (a 76-residue protein attached to proteins as an intracellular targeting signal).
Subunit
Nsp2 interacts with host PHB and PHB2. 3CL-PRO exists as monomer and homodimer. Nsp4 interacts with PL-PRO and nsp6. Only the homodimer shows catalytic activity. Eight copies of nsp7 and eight copies of nsp8 assemble to form a heterohexadecamer dsRNA-encircling ring structure. Nsp9 is a dimer. Nsp10 forms a dodecamer and interacts with nsp14 and nsp16; these interactions enhance nsp14 and nsp16 enzymatic activities. Nsp14 interacts (via N-terminus) with DDX1.
Miscellaneous
Isolate N1 belongs to genotype A.
Produced by -1 ribosomal frameshifting at the 1a-1b genes boundary.
Produced by -1 ribosomal frameshifting at the 1a-1b genes boundary.
Similarity
Belongs to the coronaviruses polyprotein 1ab family.
Keywords
Activation of host autophagy by virus
ATP-binding
Decay of host mRNAs by virus
Endonuclease
Eukaryotic host gene expression shutoff by virus
Eukaryotic host translation shutoff by virus
Exonuclease
Helicase
Host cytoplasm
Host gene expression shutoff by virus
Host membrane
Host mRNA suppression by virus
Host-virus interaction
Hydrolase
Inhibition of host innate immune response by virus
Inhibition of host interferon signaling pathway by virus
Inhibition of host ISG15 by virus
Inhibition of host NF-kappa-B by virus
Membrane
Metal-binding
Methyltransferase
Modulation of host ubiquitin pathway by viral deubiquitinase
Modulation of host ubiquitin pathway by virus
Nuclease
Nucleotide-binding
Nucleotidyltransferase
Protease
Repeat
Ribosomal frameshifting
RNA-binding
RNA-directed RNA polymerase
Thiol protease
Transferase
Transmembrane
Transmembrane helix
Ubl conjugation pathway
Viral immunoevasion
Viral RNA replication
Zinc
Zinc-finger
Feature
chain Host translation inhibitor nsp1
Uniprot
Pubmed
EMBL
Proteomes
PRIDE
Pfam
Interpro
IPR036333
NSP10_sf
IPR002705 Pept_C30/C16_B_coronavir
IPR001205 RNA-dir_pol_C
IPR014828 NSP7
IPR027352 CV_ZBD
IPR032592 NAR_dom
IPR037204 NSP7_sf
IPR008740 Peptidase_C30
IPR009466 NSP11
IPR032505 Corona_NSP4_C
IPR009469 RNA_pol_N_coronovir
IPR036499 NSP9_sf
IPR041679 DNA2/NAM7-like_AAA
IPR038083 R1a/1ab
IPR018995 RNA_synth_NSP10_coronavirus
IPR029063 SAM-dependent_MTases
IPR027351 (+)RNA_virus_helicase_core_dom
IPR002589 Macro_dom
IPR009461 Coronavirus_NSP16
IPR042515 Nsp15_N
IPR038123 NSP4_C_sf
IPR037230 NSP8_sf
IPR027417 P-loop_NTPase
IPR022570 B-CoV_NSP1
IPR014827 Viral_protease
IPR013016 Peptidase_C30/C16
IPR014822 NSP9
IPR009003 Peptidase_S1_PA
IPR037227 EndoU-like
IPR014829 NSP8
IPR002705 Pept_C30/C16_B_coronavir
IPR001205 RNA-dir_pol_C
IPR014828 NSP7
IPR027352 CV_ZBD
IPR032592 NAR_dom
IPR037204 NSP7_sf
IPR008740 Peptidase_C30
IPR009466 NSP11
IPR032505 Corona_NSP4_C
IPR009469 RNA_pol_N_coronovir
IPR036499 NSP9_sf
IPR041679 DNA2/NAM7-like_AAA
IPR038083 R1a/1ab
IPR018995 RNA_synth_NSP10_coronavirus
IPR029063 SAM-dependent_MTases
IPR027351 (+)RNA_virus_helicase_core_dom
IPR002589 Macro_dom
IPR009461 Coronavirus_NSP16
IPR042515 Nsp15_N
IPR038123 NSP4_C_sf
IPR037230 NSP8_sf
IPR027417 P-loop_NTPase
IPR022570 B-CoV_NSP1
IPR014827 Viral_protease
IPR013016 Peptidase_C30/C16
IPR014822 NSP9
IPR009003 Peptidase_S1_PA
IPR037227 EndoU-like
IPR014829 NSP8
SUPFAM
ProteinModelPortal
PDB
6NUS
E-value=0.0 Score=1268 Identity=66.20%
Cov(Q)=12.91% Cov(P)=96.96%
3D Structure
Ontologies
KEGG
GO
GO:0019079 P:viral genome replication
GO:0004519 F:endonuclease activity
GO:0008168 F:methyltransferase activity
GO:0033644 C:host cell membrane
GO:0039595 P:induction by virus of catabolism of host mRNA
GO:0039644 P:suppression by virus of host NF-kappaB transcription factor activity
GO:0044172 C:host cell endoplasmic reticulum-Golgi intermediate compartment
GO:0004197 F:cysteine-type endopeptidase activity
GO:0039648 P:modulation by virus of host protein ubiquitination
GO:0039520 P:induction by virus of host autophagy
GO:0003724 F:RNA helicase activity
GO:0016896 F:exoribonuclease activity, producing 5'-phosphomonoesters
GO:0044220 C:host cell perinuclear region of cytoplasm
GO:0003723 F:RNA binding
GO:0008242 F:omega peptidase activity
GO:0039579 P:suppression by virus of host ISG15 activity
GO:0016021 C:integral component of membrane
GO:0005524 F:ATP binding
GO:0019082 P:viral protein processing
GO:0008270 F:zinc ion binding
GO:0039502 P:suppression by virus of host type I interferon-mediated signaling pathway
GO:0006351 P:transcription, DNA-templated
GO:0036459 F:thiol-dependent ubiquitinyl hydrolase activity
GO:0003968 F:RNA-directed 5'-3' RNA polymerase activity
GO:0003678 F:DNA helicase activity
GO:0032259 P:methylation
GO:0004519 F:endonuclease activity
GO:0008168 F:methyltransferase activity
GO:0033644 C:host cell membrane
GO:0039595 P:induction by virus of catabolism of host mRNA
GO:0039644 P:suppression by virus of host NF-kappaB transcription factor activity
GO:0044172 C:host cell endoplasmic reticulum-Golgi intermediate compartment
GO:0004197 F:cysteine-type endopeptidase activity
GO:0039648 P:modulation by virus of host protein ubiquitination
GO:0039520 P:induction by virus of host autophagy
GO:0003724 F:RNA helicase activity
GO:0016896 F:exoribonuclease activity, producing 5'-phosphomonoesters
GO:0044220 C:host cell perinuclear region of cytoplasm
GO:0003723 F:RNA binding
GO:0008242 F:omega peptidase activity
GO:0039579 P:suppression by virus of host ISG15 activity
GO:0016021 C:integral component of membrane
GO:0005524 F:ATP binding
GO:0019082 P:viral protein processing
GO:0008270 F:zinc ion binding
GO:0039502 P:suppression by virus of host type I interferon-mediated signaling pathway
GO:0006351 P:transcription, DNA-templated
GO:0036459 F:thiol-dependent ubiquitinyl hydrolase activity
GO:0003968 F:RNA-directed 5'-3' RNA polymerase activity
GO:0003678 F:DNA helicase activity
GO:0032259 P:methylation
Subcellular Location
From MSLVP
Capsid
From Uniprot
Host membrane
Host cytoplasm
Host endoplasmic reticulum-Golgi intermediate compartment
Host cytoplasm
Host endoplasmic reticulum-Golgi intermediate compartment
Topology
Length:
7171
Number of predicted TMHs:
16
Exp number of AAs in TMHs:
403.052459999995
Exp number, first 60 AAs:
0
Total prob of N-in:
0.00990
outside
1 - 2212
TMhelix
2213 - 2235
inside
2236 - 2268
TMhelix
2269 - 2291
outside
2292 - 2305
TMhelix
2306 - 2328
inside
2329 - 2390
TMhelix
2391 - 2413
outside
2414 - 2427
TMhelix
2428 - 2450
inside
2451 - 2827
TMhelix
2828 - 2850
outside
2851 - 3105
TMhelix
3106 - 3128
inside
3129 - 3140
TMhelix
3141 - 3163
outside
3164 - 3197
TMhelix
3198 - 3220
inside
3221 - 3636
TMhelix
3637 - 3659
outside
3660 - 3662
TMhelix
3663 - 3685
inside
3686 - 3689
TMhelix
3690 - 3712
outside
3713 - 3731
TMhelix
3732 - 3754
inside
3755 - 3760
TMhelix
3761 - 3780
outside
3781 - 3794
TMhelix
3795 - 3817
inside
3818 - 3828
TMhelix
3829 - 3851
outside
3852 - 7171
