Gene detail

Detailed information of scaffold10.g149.t1 in Aurelia aurita complex sp. Pacific

Genomic Location: scaffold10:579856...595823
NR annotation: no NCBI-NR hit recorded
Species Aurelia aurita complex sp. Pacific · all data for this species · gene families

Gene Structure

More details in JBrowse

Sequence

CDS

scaffold10.g149.t1

acgaacagcgccgcgcattgtggcaacaaatctgttcgtactcttaacggagctaatgcgtgacaattgaaattacgccgatgcgtgcagagcacctcgaccaagtttggcaaatcgagcagcaagcacattctcacccttgggccgaatctttggttcgtgacttatccagtcgcggtgcttgccatcatgtgatgctggaaggctctcaagtggttggttacttctatggacagaatattgttggagaagtgacactattaaatattgcagtagcgccttctcaacagggcagagggctagggcaaaaattgctggacgcgtttattgaacactgtgaacaagccaaagcagagagtgcttggttagaagtgcgtgaaagtaatcacccagctatccatatttatgagcaagcaggttttaatgaagtggaccgtcgttacaactattacccagctaaatcgggaaatggcgaagtgtctaagcgcagaacgttcgctattatttctcaccctgatgcgggtaaaaccaccattactgaaaaagtccttttattcggaaacgcgatccaaaaagcaggtacggttaaaggtcgtggtaacgcacagcacgcaaaatcagactggatggaaatggaaaaagaacgtggtatctcggtaaccacttctgtaatgcagttcccttacaatgactgtctggtaaacctacttgatacgcctggacacgaagacttctcggaagatacataccgtacgttaacggcagtagactcgtgtttgatggttatcgatgcggcgaaaggtgtcgaggatcgtacacgtaagctgatggaagtaacgcgtctgcgtgacacgccaatcgtaaccttcatgaacaaacttgaccgtgacgttcgtgatccaatggaagtattggacgaggtagaaaacgagttgggcatgatgtgtgcgccaattacatggccaatcggctgtggtaaagaatttaaaggtgtgtaccacattcaccgtgatgaaacgattttatacgaatcaggtcacggtcatgagattcaagaagttcgaatcatcaaaggtctcgataacccagagcttgatgaaaaagttggtgcaggccttgcggaaagtgttcgagaagagcttgagcttgttatgggtgcttgccctgagtttgatttggaaatgttcctaacaggtgatctgacgccagtttacttcggtactgcattaggtaactttggtgtggatcatatgctagacggtctaactgaatgggctccagcgccgaaaactcgtcaagcggttgaacgtgaagttgaagcgactgaagagaagttctctggtttcgtatttaagatccaagcgaacatggacccaaaacaccgcgaccgtatcgcattcatgcgtattgtatctggcacttacacgcaaggtatgaagatgaaccacgttcgtcttggcaagcaagtgagtatctctgatgcagtaacctttatggctggtgaccgtgcacgtgcagaacacgcttacgccggtgacatcattggtctacataaccacggcactattcagattggtgatacctttactcaaggtgaatcactgaagttctctggtattccgaacttcgctccggaactattccgtcgtattcgcctgaaagatccactaaagcagaagcagcttctcaaaggtttggttcagctatcagaagaaggtgcggtacaggtattccgtcctctacagaacaacgatctgatcgttggtgccgttggtgtacttcagtttgatgttgttgtggctcgtttgaagtctgagtataacgttgaagcgatttatgaaggcattaacgttgcaactgcgcgttgggttgagtgtggtgatgcgaagaaactggatgagttccaacgcaagaatcaagcgaacttagcattggatggtggtgataacctaacgtatatcgctccaacaatggttaacttaaacttagcgaaagagcgtttccctgacgttgatttcctggcattttctaacaaccgaaaagctatcaactttagaactgtgggtggcgcattcgctatccaattcgcattaggtgcatttgttctgtatgtaccttggggccgtgatctactaaacggtttctcttcaggtgtttctaacgttatcaactacggtaacgatggttcatcattcctgttcggtggtcttgtttctgacaagatgttcgaagtattcggcggcggcggtttcatcttcgcattccgtgttcttcctacactgatcttcttctctgcactgatttcagttctttactacattggcgttatgcaatgggttatcaagattcttggtggcgcactacaaaaagcgctaggcacttcgcgtgcggaatcaatgtcagctgcagctaacatcttcgtaggtcaaactgaggcacctctagttgttcgtccattcgttccaaaaatgactcaatcagagctattcgcggtaatgtgtggtggtctagcttctgttgctggtggtgtactagctggttacgcatctatgggtgttccactagagtacctagttgcggcatcattcatggcagcaccaggtggtctactgttcgctaaaatccttcaccctgagactgaccagcctcacgaaagtatcgaagaagcgatggacggcggtgacgacaaaccagttaacgtaatcgacgcagctgcgggcggtgcggcttctggtctacaacttgcgcttaacgtaggtgcaatgctaatcgcattcgttggtctaatcgcgctaatcaacggtatgctaggtggcatcggtggttggttcggcatgccagaactaacactagagctaattctaggttacgcgttctctccactagcattcctaatcggtgttccatgggcagaagctgtaacagctggttcattcattggtcagaaaatcgtagtgaacgaattcgttgcttacttgaacttcacaccatacctaggtgaaaacgctcaagtaatcgcggcaactggtgaagtaatgtctgagaagacaacagctatcatctcattcgcactatgtggtttcgcgaacctttcttctattgcgattctacttggtggtctaggtagccttgcaccaaaccgtcgtagtgacatcgctcgcatgggtgttaaagcagttcttgcagaaatgagcgatttaaaagcagcagcactacgtgcacttaaactaatggacctaactacgctgaatgatgatgacactgatgcgaaagttatttcactatgtcatgacgcaaaatcagcagtaggtaacacagctgcaatttgtatttaccctcgctttattcctattgctaagaagacacttcgtgagcaaggtacgccagaggttcgtattgcaacagtaacgaacttcccacatggtaacgacgacattgaaatcgcagttgctgaaacaaaagcggcggttgcttacggtgcagacgaagttgacgtagtttttccttaccgcgcgctaatggcgggtgatgagaaagtaggcttcgaactagttaagcaatgtaaagaagcttgtggtgacattcttcttaaagtgatcatcgaaacaggtgaactaaaagaagaagcactaatcaagaaagcatctcaaatctgtattgaagcaggtgctgacttcattaaaacttcaactggtaaagtgccagtaaacgcaacaccagaatacgctcgcatgatgcttgaagttattcgcgacatgggtgttgcagaaactgttggtttcaaaccagcaggtggtgtgcgcactgctgaagacgcagctgcatacctagcaatggctgacgaaatcctaggtgacaactgggttgatgctcgtcactaccgttttggcgtagcgaacaacacggtatctgaaggtcagattgcggcgtttgctatgacgattttctttaatgaaatgaccatggatgagcgcatcgccttaacgtgtgcaatgcgtgattcgggcatggttatcgactggagccacatgaatttcggtggtccaattgtcgacaaacactcaaccggtggtgtgggtgacgtaacttctttaatgcttggcccaatggtggcagcgtgtggcggtttcgtacctatgatctctggccgcggtcttggtcatacaggcggtacgctggataaacttgaatctatccctggttacaacattacgccgagcaacgatgtttttggtcaagtaaccaaagacgctggtgtggcgatcatcggtcaaactggtgaccttgctcctgcggataagcgtgtttacgcgactcgtgatattaccgcaacggtagacaatatctccctgattacggcgtcgatcctttctaagaaactggcggcgggtctggaatcgctagtgatggacgtaaaagtgggttcaggtgcatttatgccaacttacgaagcgtctgaagagctagcaaaatcaatcgttgcggtagcaaacggtgctggcactaagactacagcaattcttacggacatgaatcaagtattggcgtcttcagcgggtaacgcggtagaagttcgtgaagcggttcgtttcttaacaggtgaataccgtaaccctcgtctacttgaagtgaccatggcttcatgtgctgaaatgttagtacttggcaagcttgctgagaacacagaagacgcacgcgcaaaactgatggaagtgctggataacggcaaagcagctgagtgcttcggcaagatggttgctggcttaggcggccctgcggacttcgtagaaaactacgacaactacttagaaaaagcagaaatcatcaagccagtttacgcaacagaaacgggcattgtctctgcaatggatacacgtgctatcggcatggctgtggttgctatgggtggtggtcgtcgagtcgctactgatgaaatcgactacgcagttggtttcgacgagttcatccgcctaggtgaggtcgcagacagtgataaacctcttgcggtcatccacgctcgcactgaagagcaatgggaagaagcggcaaaagcactgcgcagtgcaatcaaagtaggtgtactagactcattcggtatcggtgcaactgccgacgctaaagaatttggtgatgtaggttcagacacactaggtcacatcgctgaccaatgtgaaaaaggcttagcagataacgacaatcgccaaggtgcacttcgccttccaaatctatcgaaacttggtttggcaatggcgcataaagaatcgacaggtcgcttcgcacctggactagacacagacgctgaaatcattggtgcatacggtcatgcagcagagctttcttcaggtaaagacacgccgtctggtcactgggaaatcgcaggtgttcctgttctgtttgactggggttacttcactgacaaagcaaacagcttcccgaaagaattgactgaccgcattcttgagcgtgcggggcttgacggtttcctaggtaactgtcacgcgtctggtactcaagttcttgacgatcttggtgaagagcacatgaagactggcaaaccaatcttctacacgtctgctgactctgtattccaaatcgcatgtcacgaagggactttcggtctagaccgtctactagagctttgccaaatcgcacgtgaagagctagaagattacaacattggtcgtgttatcgcgcgcccattcgttggtgctggtaaaggtcaatttgagcgtacaggtaatcgtcgtgatctttctgtagagccaccatcagcaacggttcttcagaagctcgttgatgagaagcaaggcaacgtggtttctattggtaagattgctgatatctacgcaaactgcggcatcactaagaaagtgaaagcgacaggtatccctgcattgttcgaagcaacgctagagcaaatcaaagaagcgggcgacaacacgatcatattcactaactttgtagacttcgactcagcttacggtcaccgtcgtgacgtagcgggttacgcagcggcacttgagtacttcgatgatcgtatcaacgaagtgctagagattatggaagaagacgatgtgcttatcctaacggcagaccacggctgtgacccaacatggccaggtactgaccatactcgtgagcacatcccagtattggtttatggtcaaaaagtaccagctggttctcttggccgccgcgaaacattcgcagatatcggtcaaacattggcaagttacttcggtacttctccaatggattacgacgtcgtactgatgcctggcgatccactacgtgcaaaatacatcgcagagactttccttgaagatgtcgttcaagtgtgtgacgttcgtaatatgtttggttacacaggcacatacaaaggccgtaagatctcggtaatgggccacggtatgggtatcccatcatgctcgatttacgcgactgaactaatcaaagacttcggcgtgaagaaaatcatccgtgttggcagctgtggcgcagtgaatgaagacatcaaagtgcgtgatgttgtgatcggcatgggtgcatgtactgactctaaagtgaaccgtatccgctttaaaggtcatgacttcgcggcaatcgcagactacaacatggttcgtgcggcagaagacgctgcaaaagctcgcggtattgacgttaaagttggtaacctattctcagcagagcttttctacacgccagatccagaaatgttcgatgtaatggacaagtacggcattgttggtgttgaaatggaagcggctggtatttacggtgttgcggcagaatacggtgcaaaagctctgacaatctgtacggtttctgatcatatcaagactggcgaacagactacatctgacgagcgtcaaacgacattcaacgacatgatgctaatcgcactagattcagtattgcttggtgacgaagaaaaacatacgacacttttaaaacgattacccgagactcgatttgcctcccaattagataaagcaaaagcaaactggatcgtatttgctgagtacctttcgccaagtcacttcgaagacattgatttcttcaccggcttttacaacccgatactagaaacgtggaaagttggccaatatgaagtagccttgatggccggagagttgactcctcaacatgaaacgatcttacaaagtctcaacctagattacgcctcgcttaatgaagtgcccgatctatcaacccaagggttgattgtatttgatatggattcaacggcgatccagatagagtgtattgatgaaatcgcgaaactggcaggagtaggggatgaggtagctgaagtcactgaacgtgccatgcaaggtgagctggattttgagcaaagtttacgtcagcgagttggtaagctcaaaggtgccgatgaatcaattcttgaacaagttcgttcccagttaccattcatgccggactttgaagcgctaattgcgacgttgaaagccttgggctggaaaacagcgattgcctccggtggttttacttacttctctgattacatcaaagataaagtcgacttagactttgctcgctccaatcaattagaaattattgacggcaaactcacgggtaaagtacttggcgatgtggtaacggcgcagatgaagtctgacattctagtggaactggcggatgaatatgaaattgagcagcacaacacggttgctgtcggtgatggcgctaatgatcttgtgatgatgtcggtggcaggattagggattgcgtatcacgcaaaaccaaaagtggaagctcaagcgcaatcagcgattcgctttgcagggttgggcggtgtgctctgtattttatctggagcattggtgaagcagcaaaaggggcagtgtaacgcatgtggtgcatggaatacgataacagaagtacgtatcgctgcatcgccaaccgttgctcgcaacgaacgcttaagtggctacgctggttccgcaacagaagcaacggttcaaacgctatccgaaattgatctgcaagaagtacctcgcttcaccagtgggtttaaagagcttgaccgcgtgttgggtggtggtgttgtgccaggtgccgcaattttgattggtggtaaccctggtgcaggtaaatcaacccttctgttgcaaaccatgtgtagtttatctgcgcaaatgccaacgctttacgtaaccggtgaagagtcattacagcaggtggcaatgcgtgcttcccgattgggcttgccgaaagatcatttaaaaatgctatcggaaacgaacgtcgacaaaatttgccaaatcgccgaaaaagagcagcctcgtataatggtaatagactcgattcaggtgatgcacgtttctgatgttcaatcgtcgcctggcagtgttgctcaggtacgtgaatctgcgacggctctgacacgatacgcaaaacagaataatgttgcggtatttattgttggtcacgtaacaaaagatggtacccttgcgggccccaaagttcttgaacacattatcgactgttcggtactactcgatggtggaacggatagccgattccgcactttgcgtagtcataaaaaccgttttggtgctgtgaatgagcttggtgtatttgcaatgacaggccaaggattgaaggaagtgagtaacccatcagcgatcttcctttctcgtggtgaagaagaaacatcaggctcttcagtcatggtggtttgggaaggcacgcgccctctactagtagagattcaagcgctggtggattactcgcagttagccaaccctcgtcgtgttgcggtcggcttggagcagaaccgcctatcacttttgctcgctgtgttgcataagcatggtggcttacaaatggcagaccaagatgtctttgttaatgtggttggcggtgttaaggtgacggagacaagcgctgatcttgctttagttatggcgcttttatcgagttttcgtgaccgtccactccctaaagatgtggtgatttttggtgaggtagggcttgcgggcgaaatccgtccagtgccaagtgggcaagagcgtttgaatgaagcgttcaaacatggtttcaagaaagccatcgtgccagcagccaacatgccgaaaggtggcatccctggcatgcaaattcacggcgttaagaaattgtcggaagcgatagaggcttttgacgagctgtaatgctcataagaatggtatttgtgcaatcacaaactgttctatccgtcctcaataaaatgcgaataaagta

Transcript

scaffold10.g149.t1

ACGAACAGCGCCGCGCATTGTGGCAACAAATCTGTTCGTACTCTTAACGGAGCTAATGCGTGACAATTGAAATTACGCCGATGCGTGCAGAGCACCTCGACCAAGTTTGGCAAATCGAGCAGCAAGCACATTCTCACCCTTGGGCCGAATCTTTGGTTCGTGACTTATCCAGTCGCGGTGCTTGCCATCATGTGATGCTGGAAGGCTCTCAAGTGGTTGGTTACTTCTATGGACAGAATATTGTTGGAGAAGTGACACTATTAAATATTGCAGTAGCGCCTTCTCAACAGGGCAGAGGGCTAGGGCAAAAATTGCTGGACGCGTTTATTGAACACTGTGAACAAGCCAAAGCAGAGAGTGCTTGGTTAGAAGTGCGTGAAAGTAATCACCCAGCTATCCATATTTATGAGCAAGCAGGTTTTAATGAAGTGGACCGTCGTTACAACTATTACCCAGCTAAATCGGGAAATGGCGAAGTGTCTAAGCGCAGAACGTTCGCTATTATTTCTCACCCTGATGCGGGTAAAACCACCATTACTGAAAAAGTCCTTTTATTCGGAAACGCGATCCAAAAAGCAGGTACGGTTAAAGGTCGTGGTAACGCACAGCACGCAAAATCAGACTGGATGGAAATGGAAAAAGAACGTGGTATCTCGGTAACCACTTCTGTAATGCAGTTCCCTTACAATGACTGTCTGGTAAACCTACTTGATACGCCTGGACACGAAGACTTCTCGGAAGATACATACCGTACGTTAACGGCAGTAGACTCGTGTTTGATGGTTATCGATGCGGCGAAAGGTGTCGAGGATCGTACACGTAAGCTGATGGAAGTAACGCGTCTGCGTGACACGCCAATCGTAACCTTCATGAACAAACTTGACCGTGACGTTCGTGATCCAATGGAAGTATTGGACGAGGTAGAAAACGAGTTGGGCATGATGTGTGCGCCAATTACATGGCCAATCGGCTGTGGTAAAGAATTTAAAGGTGTGTACCACATTCACCGTGATGAAACGATTTTATACGAATCAGGTCACGGTCATGAGATTCAAGAAGTTCGAATCATCAAAGGTCTCGATAACCCAGAGCTTGATGAAAAAGTTGGTGCAGGCCTTGCGGAAAGTGTTCGAGAAGAGCTTGAGCTTGTTATGGGTGCTTGCCCTGAGTTTGATTTGGAAATGTTCCTAACAGGTGATCTGACGCCAGTTTACTTCGGTACTGCATTAGGTAACTTTGGTGTGGATCATATGCTAGACGGTCTAACTGAATGGGCTCCAGCGCCGAAAACTCGTCAAGCGGTTGAACGTGAAGTTGAAGCGACTGAAGAGAAGTTCTCTGGTTTCGTATTTAAGATCCAAGCGAACATGGACCCAAAACACCGCGACCGTATCGCATTCATGCGTATTGTATCTGGCACTTACACGCAAGGTATGAAGATGAACCACGTTCGTCTTGGCAAGCAAGTGAGTATCTCTGATGCAGTAACCTTTATGGCTGGTGACCGTGCACGTGCAGAACACGCTTACGCCGGTGACATCATTGGTCTACATAACCACGGCACTATTCAGATTGGTGATACCTTTACTCAAGGTGAATCACTGAAGTTCTCTGGTATTCCGAACTTCGCTCCGGAACTATTCCGTCGTATTCGCCTGAAAGATCCACTAAAGCAGAAGCAGCTTCTCAAAGGTTTGGTTCAGCTATCAGAAGAAGGTGCGGTACAGGTATTCCGTCCTCTACAGAACAACGATCTGATCGTTGGTGCCGTTGGTGTACTTCAGTTTGATGTTGTTGTGGCTCGTTTGAAGTCTGAGTATAACGTTGAAGCGATTTATGAAGGCATTAACGTTGCAACTGCGCGTTGGGTTGAGTGTGGTGATGCGAAGAAACTGGATGAGTTCCAACGCAAGAATCAAGCGAACTTAGCATTGGATGGTGGTGATAACCTAACGTATATCGCTCCAACAATGGTTAACTTAAACTTAGCGAAAGAGCGTTTCCCTGACGTTGATTTCCTGGCATTTTCTAACAACCGAAAAGCTATCAACTTTAGAACTGTGGGTGGCGCATTCGCTATCCAATTCGCATTAGGTGCATTTGTTCTGTATGTACCTTGGGGCCGTGATCTACTAAACGGTTTCTCTTCAGGTGTTTCTAACGTTATCAACTACGGTAACGATGGTTCATCATTCCTGTTCGGTGGTCTTGTTTCTGACAAGATGTTCGAAGTATTCGGCGGCGGCGGTTTCATCTTCGCATTCCGTGTTCTTCCTACACTGATCTTCTTCTCTGCACTGATTTCAGTTCTTTACTACATTGGCGTTATGCAATGGGTTATCAAGATTCTTGGTGGCGCACTACAAAAAGCGCTAGGCACTTCGCGTGCGGAATCAATGTCAGCTGCAGCTAACATCTTCGTAGGTCAAACTGAGGCACCTCTAGTTGTTCGTCCATTCGTTCCAAAAATGACTCAATCAGAGCTATTCGCGGTAATGTGTGGTGGTCTAGCTTCTGTTGCTGGTGGTGTACTAGCTGGTTACGCATCTATGGGTGTTCCACTAGAGTACCTAGTTGCGGCATCATTCATGGCAGCACCAGGTGGTCTACTGTTCGCTAAAATCCTTCACCCTGAGACTGACCAGCCTCACGAAAGTATCGAAGAAGCGATGGACGGCGGTGACGACAAACCAGTTAACGTAATCGACGCAGCTGCGGGCGGTGCGGCTTCTGGTCTACAACTTGCGCTTAACGTAGGTGCAATGCTAATCGCATTCGTTGGTCTAATCGCGCTAATCAACGGTATGCTAGGTGGCATCGGTGGTTGGTTCGGCATGCCAGAACTAACACTAGAGCTAATTCTAGGTTACGCGTTCTCTCCACTAGCATTCCTAATCGGTGTTCCATGGGCAGAAGCTGTAACAGCTGGTTCATTCATTGGTCAGAAAATCGTAGTGAACGAATTCGTTGCTTACTTGAACTTCACACCATACCTAGGTGAAAACGCTCAAGTAATCGCGGCAACTGGTGAAGTAATGTCTGAGAAGACAACAGCTATCATCTCATTCGCACTATGTGGTTTCGCGAACCTTTCTTCTATTGCGATTCTACTTGGTGGTCTAGGTAGCCTTGCACCAAACCGTCGTAGTGACATCGCTCGCATGGGTGTTAAAGCAGTTCTTGCAGAAATGAGCGATTTAAAAGCAGCAGCACTACGTGCACTTAAACTAATGGACCTAACTACGCTGAATGATGATGACACTGATGCGAAAGTTATTTCACTATGTCATGACGCAAAATCAGCAGTAGGTAACACAGCTGCAATTTGTATTTACCCTCGCTTTATTCCTATTGCTAAGAAGACACTTCGTGAGCAAGGTACGCCAGAGGTTCGTATTGCAACAGTAACGAACTTCCCACATGGTAACGACGACATTGAAATCGCAGTTGCTGAAACAAAAGCGGCGGTTGCTTACGGTGCAGACGAAGTTGACGTAGTTTTTCCTTACCGCGCGCTAATGGCGGGTGATGAGAAAGTAGGCTTCGAACTAGTTAAGCAATGTAAAGAAGCTTGTGGTGACATTCTTCTTAAAGTGATCATCGAAACAGGTGAACTAAAAGAAGAAGCACTAATCAAGAAAGCATCTCAAATCTGTATTGAAGCAGGTGCTGACTTCATTAAAACTTCAACTGGTAAAGTGCCAGTAAACGCAACACCAGAATACGCTCGCATGATGCTTGAAGTTATTCGCGACATGGGTGTTGCAGAAACTGTTGGTTTCAAACCAGCAGGTGGTGTGCGCACTGCTGAAGACGCAGCTGCATACCTAGCAATGGCTGACGAAATCCTAGGTGACAACTGGGTTGATGCTCGTCACTACCGTTTTGGCGTAGCGAACAACACGGTATCTGAAGGTCAGATTGCGGCGTTTGCTATGACGATTTTCTTTAATGAAATGACCATGGATGAGCGCATCGCCTTAACGTGTGCAATGCGTGATTCGGGCATGGTTATCGACTGGAGCCACATGAATTTCGGTGGTCCAATTGTCGACAAACACTCAACCGGTGGTGTGGGTGACGTAACTTCTTTAATGCTTGGCCCAATGGTGGCAGCGTGTGGCGGTTTCGTACCTATGATCTCTGGCCGCGGTCTTGGTCATACAGGCGGTACGCTGGATAAACTTGAATCTATCCCTGGTTACAACATTACGCCGAGCAACGATGTTTTTGGTCAAGTAACCAAAGACGCTGGTGTGGCGATCATCGGTCAAACTGGTGACCTTGCTCCTGCGGATAAGCGTGTTTACGCGACTCGTGATATTACCGCAACGGTAGACAATATCTCCCTGATTACGGCGTCGATCCTTTCTAAGAAACTGGCGGCGGGTCTGGAATCGCTAGTGATGGACGTAAAAGTGGGTTCAGGTGCATTTATGCCAACTTACGAAGCGTCTGAAGAGCTAGCAAAATCAATCGTTGCGGTAGCAAACGGTGCTGGCACTAAGACTACAGCAATTCTTACGGACATGAATCAAGTATTGGCGTCTTCAGCGGGTAACGCGGTAGAAGTTCGTGAAGCGGTTCGTTTCTTAACAGGTGAATACCGTAACCCTCGTCTACTTGAAGTGACCATGGCTTCATGTGCTGAAATGTTAGTACTTGGCAAGCTTGCTGAGAACACAGAAGACGCACGCGCAAAACTGATGGAAGTGCTGGATAACGGCAAAGCAGCTGAGTGCTTCGGCAAGATGGTTGCTGGCTTAGGCGGCCCTGCGGACTTCGTAGAAAACTACGACAACTACTTAGAAAAAGCAGAAATCATCAAGCCAGTTTACGCAACAGAAACGGGCATTGTCTCTGCAATGGATACACGTGCTATCGGCATGGCTGTGGTTGCTATGGGTGGTGGTCGTCGAGTCGCTACTGATGAAATCGACTACGCAGTTGGTTTCGACGAGTTCATCCGCCTAGGTGAGGTCGCAGACAGTGATAAACCTCTTGCGGTCATCCACGCTCGCACTGAAGAGCAATGGGAAGAAGCGGCAAAAGCACTGCGCAGTGCAATCAAAGTAGGTGTACTAGACTCATTCGGTATCGGTGCAACTGCCGACGCTAAAGAATTTGGTGATGTAGGTTCAGACACACTAGGTCACATCGCTGACCAATGTGAAAAAGGCTTAGCAGATAACGACAATCGCCAAGGTGCACTTCGCCTTCCAAATCTATCGAAACTTGGTTTGGCAATGGCGCATAAAGAATCGACAGGTCGCTTCGCACCTGGACTAGACACAGACGCTGAAATCATTGGTGCATACGGTCATGCAGCAGAGCTTTCTTCAGGTAAAGACACGCCGTCTGGTCACTGGGAAATCGCAGGTGTTCCTGTTCTGTTTGACTGGGGTTACTTCACTGACAAAGCAAACAGCTTCCCGAAAGAATTGACTGACCGCATTCTTGAGCGTGCGGGGCTTGACGGTTTCCTAGGTAACTGTCACGCGTCTGGTACTCAAGTTCTTGACGATCTTGGTGAAGAGCACATGAAGACTGGCAAACCAATCTTCTACACGTCTGCTGACTCTGTATTCCAAATCGCATGTCACGAAGGGACTTTCGGTCTAGACCGTCTACTAGAGCTTTGCCAAATCGCACGTGAAGAGCTAGAAGATTACAACATTGGTCGTGTTATCGCGCGCCCATTCGTTGGTGCTGGTAAAGGTCAATTTGAGCGTACAGGTAATCGTCGTGATCTTTCTGTAGAGCCACCATCAGCAACGGTTCTTCAGAAGCTCGTTGATGAGAAGCAAGGCAACGTGGTTTCTATTGGTAAGATTGCTGATATCTACGCAAACTGCGGCATCACTAAGAAAGTGAAAGCGACAGGTATCCCTGCATTGTTCGAAGCAACGCTAGAGCAAATCAAAGAAGCGGGCGACAACACGATCATATTCACTAACTTTGTAGACTTCGACTCAGCTTACGGTCACCGTCGTGACGTAGCGGGTTACGCAGCGGCACTTGAGTACTTCGATGATCGTATCAACGAAGTGCTAGAGATTATGGAAGAAGACGATGTGCTTATCCTAACGGCAGACCACGGCTGTGACCCAACATGGCCAGGTACTGACCATACTCGTGAGCACATCCCAGTATTGGTTTATGGTCAAAAAGTACCAGCTGGTTCTCTTGGCCGCCGCGAAACATTCGCAGATATCGGTCAAACATTGGCAAGTTACTTCGGTACTTCTCCAATGGATTACGACGTCGTACTGATGCCTGGCGATCCACTACGTGCAAAATACATCGCAGAGACTTTCCTTGAAGATGTCGTTCAAGTGTGTGACGTTCGTAATATGTTTGGTTACACAGGCACATACAAAGGCCGTAAGATCTCGGTAATGGGCCACGGTATGGGTATCCCATCATGCTCGATTTACGCGACTGAACTAATCAAAGACTTCGGCGTGAAGAAAATCATCCGTGTTGGCAGCTGTGGCGCAGTGAATGAAGACATCAAAGTGCGTGATGTTGTGATCGGCATGGGTGCATGTACTGACTCTAAAGTGAACCGTATCCGCTTTAAAGGTCATGACTTCGCGGCAATCGCAGACTACAACATGGTTCGTGCGGCAGAAGACGCTGCAAAAGCTCGCGGTATTGACGTTAAAGTTGGTAACCTATTCTCAGCAGAGCTTTTCTACACGCCAGATCCAGAAATGTTCGATGTAATGGACAAGTACGGCATTGTTGGTGTTGAAATGGAAGCGGCTGGTATTTACGGTGTTGCGGCAGAATACGGTGCAAAAGCTCTGACAATCTGTACGGTTTCTGATCATATCAAGACTGGCGAACAGACTACATCTGACGAGCGTCAAACGACATTCAACGACATGATGCTAATCGCACTAGATTCAGTATTGCTTGGTGACGAAGAAAAACATACGACACTTTTAAAACGATTACCCGAGACTCGATTTGCCTCCCAATTAGATAAAGCAAAAGCAAACTGGATCGTATTTGCTGAGTACCTTTCGCCAAGTCACTTCGAAGACATTGATTTCTTCACCGGCTTTTACAACCCGATACTAGAAACGTGGAAAGTTGGCCAATATGAAGTAGCCTTGATGGCCGGAGAGTTGACTCCTCAACATGAAACGATCTTACAAAGTCTCAACCTAGATTACGCCTCGCTTAATGAAGTGCCCGATCTATCAACCCAAGGGTTGATTGTATTTGATATGGATTCAACGGCGATCCAGATAGAGTGTATTGATGAAATCGCGAAACTGGCAGGAGTAGGGGATGAGGTAGCTGAAGTCACTGAACGTGCCATGCAAGGTGAGCTGGATTTTGAGCAAAGTTTACGTCAGCGAGTTGGTAAGCTCAAAGGTGCCGATGAATCAATTCTTGAACAAGTTCGTTCCCAGTTACCATTCATGCCGGACTTTGAAGCGCTAATTGCGACGTTGAAAGCCTTGGGCTGGAAAACAGCGATTGCCTCCGGTGGTTTTACTTACTTCTCTGATTACATCAAAGATAAAGTCGACTTAGACTTTGCTCGCTCCAATCAATTAGAAATTATTGACGGCAAACTCACGGGTAAAGTACTTGGCGATGTGGTAACGGCGCAGATGAAGTCTGACATTCTAGTGGAACTGGCGGATGAATATGAAATTGAGCAGCACAACACGGTTGCTGTCGGTGATGGCGCTAATGATCTTGTGATGATGTCGGTGGCAGGATTAGGGATTGCGTATCACGCAAAACCAAAAGTGGAAGCTCAAGCGCAATCAGCGATTCGCTTTGCAGGGTTGGGCGGTGTGCTCTGTATTTTATCTGGAGCATTGGTGAAGCAGCAAAAGGGGCAGTGTAACGCATGTGGTGCATGGAATACGATAACAGAAGTACGTATCGCTGCATCGCCAACCGTTGCTCGCAACGAACGCTTAAGTGGCTACGCTGGTTCCGCAACAGAAGCAACGGTTCAAACGCTATCCGAAATTGATCTGCAAGAAGTACCTCGCTTCACCAGTGGGTTTAAAGAGCTTGACCGCGTGTTGGGTGGTGGTGTTGTGCCAGGTGCCGCAATTTTGATTGGTGGTAACCCTGGTGCAGGTAAATCAACCCTTCTGTTGCAAACCATGTGTAGTTTATCTGCGCAAATGCCAACGCTTTACGTAACCGGTGAAGAGTCATTACAGCAGGTGGCAATGCGTGCTTCCCGATTGGGCTTGCCGAAAGATCATTTAAAAATGCTATCGGAAACGAACGTCGACAAAATTTGCCAAATCGCCGAAAAAGAGCAGCCTCGTATAATGGTAATAGACTCGATTCAGGTGATGCACGTTTCTGATGTTCAATCGTCGCCTGGCAGTGTTGCTCAGGTACGTGAATCTGCGACGGCTCTGACACGATACGCAAAACAGAATAATGTTGCGGTATTTATTGTTGGTCACGTAACAAAAGATGGTACCCTTGCGGGCCCCAAAGTTCTTGAACACATTATCGACTGTTCGGTACTACTCGATGGTGGAACGGATAGCCGATTCCGCACTTTGCGTAGTCATAAAAACCGTTTTGGTGCTGTGAATGAGCTTGGTGTATTTGCAATGACAGGCCAAGGATTGAAGGAAGTGAGTAACCCATCAGCGATCTTCCTTTCTCGTGGTGAAGAAGAAACATCAGGCTCTTCAGTCATGGTGGTTTGGGAAGGCACGCGCCCTCTACTAGTAGAGATTCAAGCGCTGGTGGATTACTCGCAGTTAGCCAACCCTCGTCGTGTTGCGGTCGGCTTGGAGCAGAACCGCCTATCACTTTTGCTCGCTGTGTTGCATAAGCATGGTGGCTTACAAATGGCAGACCAAGATGTCTTTGTTAATGTGGTTGGCGGTGTTAAGGTGACGGAGACAAGCGCTGATCTTGCTTTAGTTATGGCGCTTTTATCGAGTTTTCGTGACCGTCCACTCCCTAAAGATGTGGTGATTTTTGGTGAGGTAGGGCTTGCGGGCGAAATCCGTCCAGTGCCAAGTGGGCAAGAGCGTTTGAATGAAGCGTTCAAACATGGTTTCAAGAAAGCCATCGTGCCAGCAGCCAACATGCCGAAAGGTGGCATCCCTGGCATGCAAATTCACGGCGTTAAGAAATTGTCGGAAGCGATAGAGGCTTTTGACGAGCTGTAATGCTCATAAGAATGGTATTTGTGCAATCACAAACTGTTCTATCCGTCCTCAATAAAATGCGAATAAAGTA

Protein

scaffold10.g149.t1

MRAEHLDQVWQIEQQAHSHPWAESLVRDLSSRGACHHVMLEGSQVVGYFYGQNIVGEVTLLNIAVAPSQQGRGLGQKLLDAFIEHCEQAKAESAWLEVRESNHPAIHIYEQAGFNEVDRRYNYYPAKSGNGEVSKRRTFAIISHPDAGKTTITEKVLLFGNAIQKAGTVKGRGNAQHAKSDWMEMEKERGISVTTSVMQFPYNDCLVNLLDTPGHEDFSEDTYRTLTAVDSCLMVIDAAKGVEDRTRKLMEVTRLRDTPIVTFMNKLDRDVRDPMEVLDEVENELGMMCAPITWPIGCGKEFKGVYHIHRDETILYESGHGHEIQEVRIIKGLDNPELDEKVGAGLAESVREELELVMGACPEFDLEMFLTGDLTPVYFGTALGNFGVDHMLDGLTEWAPAPKTRQAVEREVEATEEKFSGFVFKIQANMDPKHRDRIAFMRIVSGTYTQGMKMNHVRLGKQVSISDAVTFMAGDRARAEHAYAGDIIGLHNHGTIQIGDTFTQGESLKFSGIPNFAPELFRRIRLKDPLKQKQLLKGLVQLSEEGAVQVFRPLQNNDLIVGAVGVLQFDVVVARLKSEYNVEAIYEGINVATARWVECGDAKKLDEFQRKNQANLALDGGDNLTYIAPTMVNLNLAKERFPDVDFLAFSNNRKAINFRTVGGAFAIQFALGAFVLYVPWGRDLLNGFSSGVSNVINYGNDGSSFLFGGLVSDKMFEVFGGGGFIFAFRVLPTLIFFSALISVLYYIGVMQWVIKILGGALQKALGTSRAESMSAAANIFVGQTEAPLVVRPFVPKMTQSELFAVMCGGLASVAGGVLAGYASMGVPLEYLVAASFMAAPGGLLFAKILHPETDQPHESIEEAMDGGDDKPVNVIDAAAGGAASGLQLALNVGAMLIAFVGLIALINGMLGGIGGWFGMPELTLELILGYAFSPLAFLIGVPWAEAVTAGSFIGQKIVVNEFVAYLNFTPYLGENAQVIAATGEVMSEKTTAIISFALCGFANLSSIAILLGGLGSLAPNRRSDIARMGVKAVLAEMSDLKAAALRALKLMDLTTLNDDDTDAKVISLCHDAKSAVGNTAAICIYPRFIPIAKKTLREQGTPEVRIATVTNFPHGNDDIEIAVAETKAAVAYGADEVDVVFPYRALMAGDEKVGFELVKQCKEACGDILLKVIIETGELKEEALIKKASQICIEAGADFIKTSTGKVPVNATPEYARMMLEVIRDMGVAETVGFKPAGGVRTAEDAAAYLAMADEILGDNWVDARHYRFGVANNTVSEGQIAAFAMTIFFNEMTMDERIALTCAMRDSGMVIDWSHMNFGGPIVDKHSTGGVGDVTSLMLGPMVAACGGFVPMISGRGLGHTGGTLDKLESIPGYNITPSNDVFGQVTKDAGVAIIGQTGDLAPADKRVYATRDITATVDNISLITASILSKKLAAGLESLVMDVKVGSGAFMPTYEASEELAKSIVAVANGAGTKTTAILTDMNQVLASSAGNAVEVREAVRFLTGEYRNPRLLEVTMASCAEMLVLGKLAENTEDARAKLMEVLDNGKAAECFGKMVAGLGGPADFVENYDNYLEKAEIIKPVYATETGIVSAMDTRAIGMAVVAMGGGRRVATDEIDYAVGFDEFIRLGEVADSDKPLAVIHARTEEQWEEAAKALRSAIKVGVLDSFGIGATADAKEFGDVGSDTLGHIADQCEKGLADNDNRQGALRLPNLSKLGLAMAHKESTGRFAPGLDTDAEIIGAYGHAAELSSGKDTPSGHWEIAGVPVLFDWGYFTDKANSFPKELTDRILERAGLDGFLGNCHASGTQVLDDLGEEHMKTGKPIFYTSADSVFQIACHEGTFGLDRLLELCQIAREELEDYNIGRVIARPFVGAGKGQFERTGNRRDLSVEPPSATVLQKLVDEKQGNVVSIGKIADIYANCGITKKVKATGIPALFEATLEQIKEAGDNTIIFTNFVDFDSAYGHRRDVAGYAAALEYFDDRINEVLEIMEEDDVLILTADHGCDPTWPGTDHTREHIPVLVYGQKVPAGSLGRRETFADIGQTLASYFGTSPMDYDVVLMPGDPLRAKYIAETFLEDVVQVCDVRNMFGYTGTYKGRKISVMGHGMGIPSCSIYATELIKDFGVKKIIRVGSCGAVNEDIKVRDVVIGMGACTDSKVNRIRFKGHDFAAIADYNMVRAAEDAAKARGIDVKVGNLFSAELFYTPDPEMFDVMDKYGIVGVEMEAAGIYGVAAEYGAKALTICTVSDHIKTGEQTTSDERQTTFNDMMLIALDSVLLGDEEKHTTLLKRLPETRFASQLDKAKANWIVFAEYLSPSHFEDIDFFTGFYNPILETWKVGQYEVALMAGELTPQHETILQSLNLDYASLNEVPDLSTQGLIVFDMDSTAIQIECIDEIAKLAGVGDEVAEVTERAMQGELDFEQSLRQRVGKLKGADESILEQVRSQLPFMPDFEALIATLKALGWKTAIASGGFTYFSDYIKDKVDLDFARSNQLEIIDGKLTGKVLGDVVTAQMKSDILVELADEYEIEQHNTVAVGDGANDLVMMSVAGLGIAYHAKPKVEAQAQSAIRFAGLGGVLCILSGALVKQQKGQCNACGAWNTITEVRIAASPTVARNERLSGYAGSATEATVQTLSEIDLQEVPRFTSGFKELDRVLGGGVVPGAAILIGGNPGAGKSTLLLQTMCSLSAQMPTLYVTGEESLQQVAMRASRLGLPKDHLKMLSETNVDKICQIAEKEQPRIMVIDSIQVMHVSDVQSSPGSVAQVRESATALTRYAKQNNVAVFIVGHVTKDGTLAGPKVLEHIIDCSVLLDGGTDSRFRTLRSHKNRFGAVNELGVFAMTGQGLKEVSNPSAIFLSRGEEETSGSSVMVVWEGTRPLLVEIQALVDYSQLANPRRVAVGLEQNRLSLLLAVLHKHGGLQMADQDVFVNVVGGVKVTETSADLALVMALLSSFRDRPLPKDVVIFGEVGLAGEIRPVPSGQERLNEAFKHGFKKAIVPAANMPKGGIPGMQIHGVKKLSEAIEAFDEL

Pfam domain

Pfam accession	Pfam name	Description	Type	Source
PF01791 all species →	DeoC	DeoC/LacD family aldolase	Domain	Interproscan
PF03144 all species →	GTP_EFTU_D2	Elongation factor Tu domain 2	Domain	Interproscan
PF02885 all species →	Glycos_trans_3N	Glycosyl transferase family, helical bundle domain	Domain	Interproscan
PF00583 all species →	Acetyltransf_1	Acetyltransferase (GNAT) family	Family	Interproscan
PF13541 all species →	ChlI	Subunit ChlI of Mg-chelatase	Domain	Interproscan
PF13481 all species →	AAA_25	AAA domain	Domain	Interproscan
PF00009 all species →	GTP_EFTU	Elongation factor Tu GTP binding domain	Domain	Interproscan
PF07831 all species →	PYNP_C	Pyrimidine nucleoside phosphorylase C-terminal domain	Domain	Interproscan
PF07662 all species →	Nucleos_tra2_C	Na+ dependent nucleoside transporter C-terminus	Family	Interproscan
PF01676 all species →	Metalloenzyme	Metalloenzyme superfamily	Family	Interproscan
PF16658 all species →	RF3_C	Class II release factor RF3, C-terminal domain	Domain	Interproscan
PF01048 all species →	PNP_UDP_1	Phosphorylase superfamily	Domain	Interproscan
PF00591 all species →	Glycos_transf_3	Glycosyl transferase family, a/b domain	Family	Interproscan
PF07670 all species →	Gate	Nucleoside recognition	Domain	Interproscan
PF00702 all species →	Hydrolase	haloacid dehalogenase-like hydrolase	Domain	Interproscan
PF18429 all species →	DUF5609	Domain of unknown function (DUF5609)	Domain	Interproscan
PF01773 all species →	Nucleos_tra2_N	Na+ dependent nucleoside transporter N-terminus	Family	Interproscan

InterPro

InterPro term	Type	Description	Source
IPR036412 all species →	Homologous_superfamily	HAD-like superfamily	Interproscan
IPR002915 all species →	Family	DeoC/FbaB/LacD aldolase	Interproscan
IPR004161 all species →	Domain	Translation elongation factor EFTu-like, domain 2	Interproscan
IPR027417 all species →	Homologous_superfamily	P-loop containing nucleoside triphosphate hydrolase	Interproscan
IPR035994 all species →	Homologous_superfamily	Nucleoside phosphorylase superfamily	Interproscan
IPR017459 all species →	Domain	Glycosyl transferase family 3, N-terminal domain	Interproscan
IPR020568 all species →	Homologous_superfamily	Ribosomal protein uS5 domain 2-type superfamily	Interproscan
IPR000182 all species →	Domain	GNAT domain	Interproscan
IPR003593 all species →	Domain	AAA+ ATPase domain	Interproscan
IPR009000 all species →	Homologous_superfamily	Translation protein, beta-barrel domain superfamily	Interproscan
IPR011343 all species →	Family	Deoxyribose-phosphate aldolase	Interproscan
IPR000795 all species →	Domain	Translational (tr)-type GTP-binding domain	Interproscan
IPR024052 all species →	Homologous_superfamily	Phosphopentomutase DeoB cap domain superfamily	Interproscan
IPR013102 all species →	Domain	Pyrimidine nucleoside phosphorylase, C-terminal	Interproscan
IPR004548 all species →	Family	Peptide chain release factor 3	Interproscan
IPR035647 all species →	Homologous_superfamily	EF-G domain III/V-like	Interproscan
IPR013785 all species →	Homologous_superfamily	Aldolase-type TIM barrel	Interproscan
IPR011657 all species →	Domain	Concentrative nucleoside transporter C-terminal domain	Interproscan
IPR004402 all species →	Family	Purine nucleoside phosphorylase DeoD-type	Interproscan
IPR006464 all species →	Family	N-acetyltransferase RimI/Ard1	Interproscan
IPR023214 all species →	Homologous_superfamily	HAD superfamily	Interproscan
IPR013465 all species →	Family	Thymidine phosphorylase	Interproscan
IPR004469 all species →	Family	Phosphoserine phosphatase	Interproscan
IPR004504 all species →	Family	DNA repair protein RadA	Interproscan
IPR018090 all species →	Family	Pyrimidine-nucleoside phosphorylase, bacterial/eukaryotic	Interproscan
IPR036566 all species →	Homologous_superfamily	Pyrimidine nucleoside phosphorylase-like, C-terminal domain superfamily	Interproscan
IPR006124 all species →	Domain	Metalloenzyme	Interproscan
IPR032090 all species →	Domain	Peptide chain release factor 3, C-terminal	Interproscan
IPR010045 all species →	Family	Phosphopentomutase	Interproscan
IPR035902 all species →	Homologous_superfamily	Nucleoside phosphorylase/phosphoribosyltransferase catalytic domain superfamily	Interproscan
IPR018270 all species →	Family	Concentrative nucleoside transporter, metazoan/bacterial	Interproscan
IPR000845 all species →	Domain	Nucleoside phosphorylase domain	Interproscan
IPR000312 all species →	Domain	Glycosyl transferase, family 3	Interproscan
IPR020588 all species →	Domain	DNA recombination and repair protein RecA-like, ATP-binding domain	Interproscan
IPR018016 all species →	Conserved_site	Nucleoside phosphorylase, conserved site	Interproscan
IPR016181 all species →	Homologous_superfamily	Acyl-CoA N-acyltransferase	Interproscan
IPR031157 all species →	Conserved_site	Tr-type G domain, conserved site	Interproscan
IPR017872 all species →	Conserved_site	Pyrimidine-nucleoside phosphorylase, conserved site	Interproscan
IPR041732 all species →	Domain	Peptide chain release factor 3, GTP-binding domain	Interproscan
IPR036320 all species →	Homologous_superfamily	Glycosyl transferase family 3, N-terminal domain superfamily	Interproscan
IPR043690 all species →	Family	N-acetyltransferase RimI	Interproscan
IPR011642 all species →	Domain	Nucleoside transporter/FeoB GTPase, Gate domain	Interproscan
IPR017850 all species →	Homologous_superfamily	Alkaline-phosphatase-like, core domain superfamily	Interproscan
IPR005225 all species →	Domain	Small GTP-binding protein domain	Interproscan
IPR041449 all species →	Domain	Phosphoserine phosphatase, N-terminal	Interproscan
IPR002668 all species →	Domain	Concentrative nucleoside transporter N-terminal domain	Interproscan
IPR038467 all species →	Homologous_superfamily	Peptide chain release factor 3, domain III superfamily	Interproscan
IPR014721 all species →	Homologous_superfamily	Small ribosomal subunit protein uS5 domain 2-type fold, subgroup	Interproscan

PANTHER

PANTHER term	Description	Source
PTHR43556 all species →	PEPTIDE CHAIN RELEASE FACTOR RF3	Interproscan

Gene Ontology

GO term	Category	Description	Source
GO:0016829 all species →	Molecular Function	lyase activity	Interproscan
GO:0005525 all species →	Molecular Function	GTP binding	Interproscan
GO:0003824 all species →	Molecular Function	catalytic activity	Interproscan
GO:0009116 all species →	Biological Process	nucleoside metabolic process	Interproscan
GO:0016747 all species →	Molecular Function	acyltransferase activity, transferring groups other than amino-acyl groups	Interproscan
GO:0016887 all species →	Molecular Function	ATP hydrolysis activity	Interproscan
GO:0004139 all species →	Molecular Function	deoxyribose-phosphate aldolase activity	Interproscan
GO:0005737 all species →	Cellular Component	cytoplasm	Interproscan
GO:0009264 all species →	Biological Process	deoxyribonucleotide catabolic process	Interproscan
GO:0003924 all species →	Molecular Function	GTPase activity	Interproscan
GO:0008973 all species →	Molecular Function	phosphopentomutase activity	Interproscan
GO:0006213 all species →	Biological Process	pyrimidine nucleoside metabolic process	Interproscan
GO:0016763 all species →	Molecular Function	pentosyltransferase activity	Interproscan
GO:0006415 all species →	Biological Process	translational termination	Interproscan
GO:0004731 all species →	Molecular Function	purine-nucleoside phosphorylase activity	Interproscan
GO:0006139 all species →	Biological Process	nucleobase-containing compound metabolic process	Interproscan
GO:0006474 all species →	Biological Process	N-terminal protein amino acid acetylation	Interproscan
GO:0008080 all species →	Molecular Function	N-acetyltransferase activity	Interproscan
GO:0009032 all species →	Molecular Function	thymidine phosphorylase activity	Interproscan
GO:0006564 all species →	Biological Process	L-serine biosynthetic process	Interproscan
GO:0036424 all species →	Molecular Function	L-phosphoserine phosphatase activity	Interproscan
GO:0003684 all species →	Molecular Function	damaged DNA binding	Interproscan
GO:0005524 all species →	Molecular Function	ATP binding	Interproscan
GO:0006281 all species →	Biological Process	DNA repair	Interproscan
GO:0016154 all species →	Molecular Function	pyrimidine-nucleoside phosphorylase activity	Interproscan
GO:0046872 all species →	Molecular Function	metal ion binding	Interproscan
GO:0000287 all species →	Molecular Function	magnesium ion binding	Interproscan
GO:0009117 all species →	Biological Process	nucleotide metabolic process	Interproscan
GO:0043094 all species →	Biological Process	cellular metabolic compound salvage	Interproscan
GO:0005337 all species →	Molecular Function	nucleoside transmembrane transporter activity	Interproscan
GO:0016020 all species →	Cellular Component	membrane	Interproscan
GO:1901642 all species →	Biological Process	nucleoside transmembrane transport	Interproscan
GO:0016757 all species →	Molecular Function	glycosyltransferase activity	Interproscan
GO:0003677 all species →	Molecular Function	DNA binding	Interproscan
GO:0140664 all species →	Molecular Function	ATP-dependent DNA damage sensor activity	Interproscan
GO:0006206 all species →	Biological Process	pyrimidine nucleobase metabolic process	Interproscan
GO:0005829 all species →	Cellular Component	cytosol	Interproscan
GO:0016150 all species →	Molecular Function	translation release factor activity, codon nonspecific	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 scaffold10.g149.t1.

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