Basic Information

Gene Symbol
Myrf
Assembly
GCA_905404175.1
Location
FR989950.1:16604001-16628452[+]

Transcription Factor Domain

TF Family
NDT80_PhoG
Domain
NDT80_PhoG domain
PFAM
PF05224
TF Group
Unclassified Structure
Description
This family includes the DNA-binding region of NDT80 [2] as well as PhoG and its homologues. The family contains Swiss:Q05534 or VIB-1. VIB-1 is thought to be a regulator of conidiation in Neurospora crassa and shares a region of similarity to PHOG, a possible phosphate nonrepressible acid phosphatase in Aspergillus nidulans. It has been found that vib-1 is not the structural gene for nonrepressible acid phosphatase, but rather may regulate nonrepressible acid phosphatase activity [1].
Hmmscan Out
# of c-Evalue i-Evalue score bias hmm coord from hmm coord to ali coord from ali coord to env coord from env coord to acc
1 2 4.8e-35 1.1e-30 107.5 1.7 2 180 121 266 120 266 0.93
2 2 0.04 9.2e+02 0.3 0.8 68 117 684 733 666 741 0.75

Sequence Information

Coding Sequence
ATGCGAGTAGACATGCCGGAGATGGAGTCGGGCTTGATGACGTCACAGCTCGTGACACTGGGCAATGACGTCACGCCTGTGTATACAAACCTTCAGGAGCCGGGCTGTAAAAAGAGAAAGTTATCGCAGGATGTCAAATGTGAACCAGCCGCTCTATCACCAGAGAGTGTAGCTCGGCCTCCGCCGTCCGTGGACGGTTCTGAAGCCGGAGACGACACTCCTCAACAGAGTATCCGCTTCGCCTGCTTCCAGCAGACAGCTTGGCACTCTCTTTTCGACTCAAACCTGAAACCTATCCCAACTCCGTCGTACATAGTCGGCGCGGATAAGGGTTTCAACTACTCCCAGATAGACGAGGCCTTCGTCTGCCAGAAGAAGAATCACTTCCAGGTGACCTGTCAGGTGCAGGTGGCCGGCGAGCCGCAGTACGTCAAGACTGCTGAAGGGTACAAGAAGATCAATAGCTTCTGCTTGCATTTCTATGGAGTCAAGGCTGAGGATCCTAGCCAAGAAGTAAGGGTCGAACAAAGTCAGTCTGATAGAACCAAGAAACCGTTTCATCCTGTACCCGTGGATCTCCGGCGCGAAGGGTCAAAAATCACAGTAGGCCGACTTCACTTCGCGGAGACTACGAACAACAATATGAGGAAGAAGGGTCGCCCCAACCCCGATCAGAGGCACTTCCAGCTGGTCGTGGCCTTGAAGGCCCACACCGCGTCCAGCGAGTGTATAGTAGCGGCGCACGCCAGCGATAGGATTATAGTCCGGGCATCAAATCCTGGACAGTTCGAGTCGGATTGTTCGGAAAACTGGTGGCAAAGGGGCGTGTCTGAGAACAGCGTGCACTTCAACGGGCGAGTCGGGATCAACACGGACAGGCCGGACGAGAGCTGCGTTATTAATGGTAACCTCAAAGTGATGGGCCATATAGTCCACCCGTCGGACGCGCGCGCCAAGCACGACATCGAGGAGTTGGACACCGCGCAGCAGCTCAAGAACGTCCAGAGTATACGGGTTGTTAAGTTCAGCTACGACCCGTCGTTCGCGGAGCACTCGGGGCTGGTGGGGCGCGACCCGCGCGCGGCGCCGCGCGACACGGGCGTGCTGGCGCAGGAGGTGCGCCGCGTGCTGCCCGACGCGGTCAGGGAGGCCGGGGATGTGGCGCTGCCGAATGGCGACACGATACGCAAGTTCCTCGTCGTCAACAAGGATCGCATCTTCATGGAGAACCTGGGAGCGGTGAAAGAGCTGTGCAAGGTGACCGGCCACCTGGAGTCCAGGATCGACCAGCTGGAGAAGATCAACAGGAAGCTCTGCAAGATCAGCTCGCTGCAGCGCCGGGACAGCTCCAGGTCGAGTGGTAGTAACGACTCCCACTTCTCAGGAATCTCAGCATCGTCAAAATCATTTTACAGCGATGGCAACATTTCCATAGACCAAATCCGGGACATCGCGCGCTCCATCCGCCGGCACGAGTGTTGCCATAAACTCAGCCACAACTCCCCGAAATACACTCGGAAACAGTGCAAAAACTGCCACGTTTACTCGAAATATGGGAAATACTACAACTATAATAAAACTTGTGTCCGGTATCATTCGAAATCGGAGAAATCTGAAAACCCTGACAGCAATTACCCCACTTATGTCAGTACTATGGAATCTCCCCAGAAGTTGCCAGATGATAATTTTAGTACGCTCTCGAAGAAGAAGGATTCGTGTCTATGGTTGAGGGATAGTGGCTATGGTTACGGGAATATGTGTTGTCGGAAGAAAAATGGCTACGATGGGAACGAATTAATATCGAATAAGTTGTTGCAGATAGTAATAACTATTTTAGTGTTTATTATGGCTGTGTGTCTCGTAGTAATGTCGGCTCTATACTTCCGGGAGCATCAAGAACTATTGTCTATGAAGGAAATACGTATGCACGAGAAATTCTCAAACTACCCGCATTATGGGAAATTCAATGGGAACAGTGCGCCCGTGCATCGGGCAACACCGCCCGATCAGAATCAGATATTGAATTCAAAACCACAACATTCAGCAACAAAGAAAAATGCAAAGGAAAAAGGCCCTCATAAAAGTCCGGATTATACATCGATTGATCCGCCAATGCCTACACCTACCGCCATGCACGCGTCGCGGAACTACGTCCGGAATGTGCTACATATGGAGCAAACGTCGACCACGCCGCGCTGGGACGGGCCCGTGGCCGTCAGTCGCGCGGCGGACGTCGTGGGCGCCGGGTGTGCGTTCGCCATCAACACCGATAACGAACTGGACGCTGAGTGTCAGTTATCATGCGGTCCGGACGCACCACAAACTTATGAGAATCAGGCACCGCTCGAGCGAAGTAAACCGGACAAAGTGCTGAATGACACTTACTCCAGATCTCTGGAACCCAAGGAGAAGATTATTACACCTGTCATTGCGGAGAAGAACACGTCAGAGAGCAAAGAAAAAGAGATAAAGAACCATTTGAAGGAGGAGATCATAGCCGAGTCGAACTTCTTGGACGCGAAGAACATTAGCGAGGGCAGGATGAAAAGAGAAGTTGAGGTGGGAGTAGAAGATGAGGGGATCCTGAAGAGCAGCTCGGAGGAGATGCTCTTGAGTCAGTCGGATGAGATTGGACGAGAGTGCGACACGATATCAGTGGGTATAACCAGCAAATCTGTCACCAACACATCGGTGTTCCGCGAGACGGTCTGCGCGCGCGCACCGCACAACTACACGTACACCGTGCCGCTGTCGCACTGTCTGCGGGACAAGCACGTCGACGTCGTGGTCAGATCAGCAAAACTCCGCGAGCTACATCTGTGCGACCTCCAATGCAAATACGATACGACTAAGAACTGCCAACTGAACCACGACATCGCGAGACCTCTTCCCGGCTCCGAATCTTGGACTTCCAGAATGACGCTGGAATGTAATATGGACAGAACGCTGAAGATCCGAGGCGGATATGTGCCTATGAAGGTGAGTGGTAGGAAATGGTAG
Protein Sequence
MRVDMPEMESGLMTSQLVTLGNDVTPVYTNLQEPGCKKRKLSQDVKCEPAALSPESVARPPPSVDGSEAGDDTPQQSIRFACFQQTAWHSLFDSNLKPIPTPSYIVGADKGFNYSQIDEAFVCQKKNHFQVTCQVQVAGEPQYVKTAEGYKKINSFCLHFYGVKAEDPSQEVRVEQSQSDRTKKPFHPVPVDLRREGSKITVGRLHFAETTNNNMRKKGRPNPDQRHFQLVVALKAHTASSECIVAAHASDRIIVRASNPGQFESDCSENWWQRGVSENSVHFNGRVGINTDRPDESCVINGNLKVMGHIVHPSDARAKHDIEELDTAQQLKNVQSIRVVKFSYDPSFAEHSGLVGRDPRAAPRDTGVLAQEVRRVLPDAVREAGDVALPNGDTIRKFLVVNKDRIFMENLGAVKELCKVTGHLESRIDQLEKINRKLCKISSLQRRDSSRSSGSNDSHFSGISASSKSFYSDGNISIDQIRDIARSIRRHECCHKLSHNSPKYTRKQCKNCHVYSKYGKYYNYNKTCVRYHSKSEKSENPDSNYPTYVSTMESPQKLPDDNFSTLSKKKDSCLWLRDSGYGYGNMCCRKKNGYDGNELISNKLLQIVITILVFIMAVCLVVMSALYFREHQELLSMKEIRMHEKFSNYPHYGKFNGNSAPVHRATPPDQNQILNSKPQHSATKKNAKEKGPHKSPDYTSIDPPMPTPTAMHASRNYVRNVLHMEQTSTTPRWDGPVAVSRAADVVGAGCAFAINTDNELDAECQLSCGPDAPQTYENQAPLERSKPDKVLNDTYSRSLEPKEKIITPVIAEKNTSESKEKEIKNHLKEEIIAESNFLDAKNISEGRMKREVEVGVEDEGILKSSSEEMLLSQSDEIGRECDTISVGITSKSVTNTSVFRETVCARAPHNYTYTVPLSHCLRDKHVDVVVRSAKLRELHLCDLQCKYDTTKNCQLNHDIARPLPGSESWTSRMTLECNMDRTLKIRGGYVPMKVSGRKW

Similar Transcription Factors

Sequence clustering based on sequence similarity using MMseqs2

90% Identity
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80% Identity
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