Basic Information

Gene Symbol
SPO11
Assembly
GCA_900659725.1
Location
CAACVG010001546.1:259866-298654[-]

Transcription Factor Domain

TF Family
GCM
Domain
GCM domain
PFAM
PF03615
TF Group
Beta-Scaffold Factors
Description
GCM transcription factors are a family of proteins which contain a GCM motif. The GCM motif is a domain that has been identified in proteins belonging to a family of transcriptional regulators involved in fundamental developmental processes which comprise Drosophila melanogaster GCM and its mammalian homologues [PMID: 8962155, PMID: 9114061, PMID: 9580683, PMID: 10671510]. IN GCM transcription factors the N-terminal moiety contains a DNA-binding domain of 150 residues. Sequence conservation is highest in this GCM domain. In contrast, the C-terminal moiety contains one or two transactivating regions and is only poorly conserved.The GCM motif has been shown to be a DNA binding domain that recognises preferentially the nonpalindromic octamer 5'-ATGCGGGT-3' [PMID: 8962155, PMID: 9114061, PMID: 9580683]. The GCM motif contains many conserved basic amino acid residues, seven cysteine residues, and four histidine residues [PMID: 8962155]. The conserved cysteines are involved in shaping the overall conformation of the domain, in the process of DNA binding and in the redox regulation of DNA binding [PMID: 9580683]. The GCM domain as a new class of Zn-containing DNA-binding domain with no similarity to any other DNA-binding domain [PMID: 12682016]. The GCM domain consists of a large and a small domain tethered together by one of the two Zn ions present in the structure. The large and the small domains comprise five- and three-stranded beta-sheets, respectively, with three small helical segments packed against the same side of the two beta-sheets. The GCM domain exercises a novel mode of sequence-specific DNA recognition, where the five-stranded beta-pleated sheet inserts into the major groove of the DNA. Residues protruding from the edge strand of the beta-pleated sheet and the following loop and strand contact the bases and backbone of both DNA strands, providing specificity for its DNA target site.
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 4 0.00036 6.9 6.7 0.0 1 17 42 58 42 61 0.91
2 4 1.1e-30 2.2e-26 92.6 0.9 81 140 60 119 58 119 0.97
3 4 0.44 8.5e+03 -3.3 0.0 1 29 803 831 803 848 0.81
4 4 0.16 3.1e+03 -1.9 0.2 55 88 1709 1741 1708 1771 0.77

Sequence Information

Coding Sequence
ATGCATGGATTGGAGAGGCACACCCCCACCTCCCCTGGCATGTCTTGCCGGGCATACGTCGGCACCCCAAATTCCACGGCCGACTGGGATATCAACGATAGCTCTGTGCCCAGAATCAACGAGTTCGACCCTTTCTCAGAATGGGCCGACGGACATTGCCGGCTAGTCTACAGGTACGGCAAACCATGTCCGAACCGAACGTGTCCCGGGCGGTTGGAGATCCTGCCGTGCAGGGGGCACTGCGGCTACCCCGTGACCCACTTCTGGAGGCACACCGAGCACGCCATCTTCTTCCAGGCGAAAGGGGTGCACGACCACCCCCGGCCCGAAGCCAAGGGGGCCAGCGAGGCGCGCAGGACGCAGGGCGGGGGCGGCAGGCGCGTGCGCAGTCTCGCCGTCGTCCTCGCCAAGGAGGCGGCACTCGGCAACAAGTTGATGTCACTACGAGAACCAAAAAGGCAATGCAGGGAAATTACAAGTCAAGTGTCACGAGAACTGAACGCATCATCATTATTTGGAGATTCTAAGAATGGTTACTGCTCGTGTCCCCCTTTCGAGTGCATCTGCAACTACCAACAACCAGCGCCAGCAACTCCTCAGCAATTCCCAGCATCTCCTAACTCGTACCCCCACCAACTCCCGGAGTGTTACTGGACGCAAGATCCTGTCCACCCTCAACTTTACCACTACTCTGACAGCGGAGTACCGAGTACGACTCACCAGTACGACTTCAATTCCATTAGTACCGAACTATTTCAACCTGAAGAGATCTTTTCCATGGAGCAGCCAGTCAAACAGGACCCCGCGCAAAATGATAGCGCAAGAAGTCCTCCAACGCTACTGGATCTGGGATCCGGAACCATCCACAGAGAGTTCAAGTCTGAAGACTACTGGAACGGAGCATTGGGGAGTCTTTTAGTTAATGATGATAGTAATAACAGTAGTAACAGTAGGTTTAACGTTAGTCAAAGCCCTTTGCTCAACAACAACCTACCGCAAGTTGATCAGAATGTTTACCCAGAGATCAAAGTTGACGGCAACAATCAGTATTCTATGTCAAAAATGTCTTTGTACCAACATTCGGAAACCCCTTACAAGAGTTTCGAGGGCCATTATTTTCTTGAGGACAAAGCTTTTCAGTCCTGTGAACCGTACCAAACACCCAAAACTTACCATCCTAAGACATCGACGCAGGACGAATATATTGATCTAGGTCAATTTGGTGAATACAATAGCTATTTAAGCAGTTATGACCCTAGCAAGAGTTTCATACAAAGACTCAAGAAAAGAAAATCGAACACAGTTCACAGTCCCgaagagaaaaaaattaaacttgatGAACAACATGATCAAAGAAAACTCAAACCTCCATGTAAGAAGAATAAAGCAAAAGATCCATTTACTGAGGATCCTAAAGTACATCAATCAAAAATAACAACTCATTACAAGATAGTGAAAGGAAGTCTGTCCAAGCCAAATACTACAAAAAAGAAACGAAACTGGGATAGTTGCTCTTCAGATGAAGAGTTCTGGATATCTAAGTTTGCATTAAAGTGTAGCAAGAGTACCAGTGATATTCCAATAAGTAGTGAAACAGAGAATACTGAAAAGCAACATAACAGTCTGCCAGTTACTCGTGAAGAAGTTACAAGAGGCCTAAGTGTTCTTTCAAGAGCTGTAAGACCAGGTTTATCATCGAAGAAAGACAAATGTCAGGTAGGAGATGTGTTGAAAAAGATCgacaaagaaaaaagaaaaccatCAGAACAGGTAAAACCTGAAACCATGAATAATAATTTAAGTTATTTAAATTATTTCACTGTAAGAGCTAATGATAATGCATCAAATAAAAGAGAATCAGGTAGCCATGGTAGACCTGATAAAATTGTGTCTAAGGTAGAAGGTATAAAGAACAGAAAAGATGCAATGCAGCATCATGATAAAAACGATATTGAAGACAAAGAGACAGTCAAAGAAATTATCGATAAGTTGGTCAAAAAAGGAAAGGATGGAAATAGAACTAAGACTTTTGTTAAAGGTATGCATTCAGGTATGGCATTTAATATATTTGACAAGATTCAACAGCATGATCAGGAGTTTGACCTTAAATGCCAAGATTTATCAAGTAGCAAATGTTTAGACATGAGAACTCTGCATAAAAATGATACTACATCTTTTAAGGTCAGCAATGAAAATAAAGACATTAATAATACCAATCATCACCAAAAACCAGTGATGCCTAAACTTCTAGATGAAACTTCTACTATTGAAACTATTGTAGAAGAAACctttcataaaacaaaaaataaggaaACAAATGGCAAAGCATCAccacaaaacaaccaaaattttaaaaataatattttctcaaagaCAATTAAGAAAGCACAAATTGACAATGTTAGATATGATAAATTTAGTAAATACTCTAACAgtggtaaaaataaaaaatatgtcaaaGCGAATGAAGAAATGTGCAAGTTGATATCCAAATTAACAGGAGAAAGAGCAGTAACAGAACAAGGAAATGAAGAGATCCAAAAACTAGTCACTAAATTAAAAAACCAGACAGAAGAAACTAATTCTGTTAGTGAAACTTCAAAGGATAAGAAGGAACTTCTTGCAGCTACTGTCAAAAACTCTTGCTGTGATAATGAGAAATATGTTGCCGAAAGGACATGTACTTACAATGAGGTACCAATACATTGTAACACTTCTGGTAACTTAAAGATAGTTGAAAGGCAGAATGAAAAACCGAACAATCTAAAATCTTTGCCATTGAAGCAATCAACACCTCTACAGTTATTCAATAAAGCTGCCAATGGAATTGAACAGGATAAATGTggaaattataaatataataataaacaagagtattcattaatttgtaataaaagtgGAAAGGTGGTAAGTTTCGAAGAACATACAGAAATATCTCAAGAAATTGACTCAAATAACAACATATCTTCAGAAATGGAGCAAAAAGatgaatatttagagaaaagtaGCTCAGACTCGGTAAAAGCTTGTGAAGGTAAGCAATTACTGAAAAAGAGACAAGCAGTTGGACAAAATTACAGTATGCCTACAGAGAAAGAAAGAATAATGCATATGCTCCACTACAATACAAAGCTTACTGGGAGTGTTAAAAATACACAACAAATGGAAAATATCTTTAAAGACATGAAACCTCTATCAGAAATTAGACAAAGTACTCCAAATAGTTTAGGTGTGGAACTTGGCAGTGGTAAAATAGAAGATTATGACATTCATAGTATTATAAGAAGATTGGCAACAGATACTGAGAAATTTGAAGTAAATAACGATCAAAATAGAACTAACACACTGCATCAGTCATGTTTTTTAGAAAGTAATGAAGCTAAGGAACTAGacgtaataaaacaaaatatgggAAATCTTCAAGATACAAATCAGGTAGCTAATATCAAGAACAGTACTTTGGAGAACGCTAATGATCACATTTCGGTACTCTATTTCAAAAATCGATCTAAATTTAGACATAAGCAGAACTCGAAGGAAAACACAATTGCAGGTGTTTTGCACGACAATGACGGTATTAAAGCAGCTTCAACAAATACTAGTTTATCAGTTTCCTTTGACCCACATGAAGAAGGCACAGATAGATTATTTAACAGTGTAACAAGTGATGAAAGCAAGAATGTTCAAAAGGAGAAAGAATTCCCCTTTACAGcccctattatgaatatcatAGCCAAACTTAACAAAAATTCATTTGATTGTCCAACAAGAACTGATGCAGTATATTCACAAAATCCACTGAATAGTGATGTACCTAGGCCTTTTACTGAAGAAAATAAAGAAGCACAATCCGTACAAGGGAGCCAGACCAATGCTCTGACAAATAAAGAAATTATGTCATTGAATAAGGTTCCAGATCCGGGATGCATTGGGAATAATACATTCAAAAAGCCTAAGGGTAACATTGAACAGAAACGGTTGACAAAGGAAAATAACAGTAACAAGCATGTTGAGAAAAATGTAGTATGTCTTCCAATTGGAGGCTTAGCTGTAAGGCAGAAAAATGCAGTGGTTGCACGGGACCTTTATCACAAACATGTATTAACACCAAATGAGAAAGTTCCGTGTGATGAAAAGTTTATAGACAGAACAAAACTTGACGATGGTGTAGACAAACTAAGACAGATACAATCAAAAAAGCATTCTGAAGAGATTAAGCATCTCATAATGGAAAATTCTAGTGCCAGTTTATTAGACGACCCTAAAACTGACGTGGAAAAACACGAGATTCATGCCAATGACAATTTCTTAAAAATATTCCGGAGACAAACCAAAATATTGGACAACGAAAGCTTGAGAGTTCAAAATGTAACAAATGTCTCATCAGAACATAGTGTTGGTACTATTGACACAGTATTTGCAGATGATCAACAGAAATTAGTTAATAAGATTTTGTTTGAAATAAGTTGTGGGAAATCAGATGAGCCCACTAACTGCTCAAGTAATATTCTCTCCCCAAAAAAATCTAATGGTGATCTTCGCAAAGATGTGaaaagacaagaaataaatttaGAACGTAAGAACGAAATTCAGTCTGTGACTGATGTCCAAAGTTCTAGAGATGTTTGCAAAAAATCTATTTCTATAAAAACAACTGAAGACGAAATTGTGTCATCAAGTATGTTGCTCAAAACAAAACGTAATATTGTACAGAATGAGGTAAAATCCGGAACAAATATTACCGAGGATCAAATTATTAACAATGTGTTGCTTGGGACAACCTGCCATGAACTAAAAAGTCAGCCAAATACGACAATCCTTAAAGATACGTTTATCTCTTCATCTCATTCGGTAACTAATTGTGAGATCAACGTAGGATCAGAGTCTTGTGTACATACTCAGAATTCTAAACCATTCAATCACCCTAATCAATCATCGGAGGATGAATTATCTGACAAACTCTGGATTAAAAACTCTGTCTTTTTGAAACAAAGATCTGATACATCCCAACTAAGTCAGTGTCTATTAAACGAccaaaaagatgaaaataataagATTATAGAAAACCATGACTTGTCGAGTCATTCGATTTTCGAACCTGAGTCAAATCTTGAAAACCCAATCCAAAGTTGTTTCCATGAGAAAAATAGAGAACTACTTATTCGTCCAAAAATGAATGATGACGTCAATAATAATGTTACCAAAAATTGCGACACACGTAATAGTCTTTTGTTGTCAGCCACAAAAAGTAGTGAAGCAAATCAGACCCAAATAACGTGCATATTCGATAAAAATGAACAAAACAATATGATGCCTAAAAAGACTCACATAAGCATAAAAGCAAACGAATTGTTGGCTGATGAAGAAATTAACAGAATACTAACAAAGAACTATGAGCAATGCATGAGATCGAAAGAGAACAACGCATCACAAACTCGAGATGACGCCATTtctaaattattgaaaaagactGAAGACCAGAAGCCAAAAGCGAAagacattataaaaaaatacaggaaAGGCAAGCTGAAGATATATCgcttgaaaaaaatgaaaaaaccgaGCAAAGATTTAGATAAAGTAGAGGAAAATTTGGACTTTGACGatgtatttaaaaaacttacaCAGGACTTTCAAGAGCCAGCTAGGTGCAGCTCCCCATGTGAGTCTTTAGTTTCTACACCATCTTCGTATAAATCTGTCAGCACATTGAGATCCGAGACACCTACTGAGTCGAAAGAACTCAGTTCGTTTCAAAGAAAGTTGCGAGAAGGTATAGAGCTCTACTACCAACTGAAAGATATGATCAATGGTCAAGGTGTCGTTGATAGAGCTATCAACTTGGTGAGCTGTTTGTTGAATGTTGGAATGTGGGCCTTGAACATTATAGCCCAGAAAGGATtaatttttggaaatttgaagATCATGCTATCATCTGGAGAAACAATCAATTGTAACGTTCCAGATGCATACTTCATACTAGTAGTTGAAAAAGAAGCCATATTCCAGAAACTTTTGGAAGAAGACATTCCTAACAAACTTACAAGACCCTTCATAATGATGACGGGTAAAGGGTTTCCTGATTTGAACACTCAGTTGTTCCTTAGGAAGTTGTGGATTATAATGAGAATTCCAGTATTTATTCTGGTGGATGCTGACCCCCATGGCATCAACATTATGTTGAACTATAGGTTCGGTTCAGTTGCAAATGCCCATGTGTCTCATCATTTAGCAGTGCCAAAAGCCAGGTGGTTGGGACTCCTTCCCTCAGAAATTACAATGTTCAATGTAAAAAAGCAAGCAATGAGTACCAACGAGCAGAAGATGGTTGAGAAATTATTAAACACCCCTTATATGAAAGATAATCCTGGGATTGTAGAGGAACTGAAGATCTTACAGAAAAATAACCTAAAGGCTGGTATTGAAGGACTTATTAAGACTGATGTGTTTCTAAGTCAAGTGTACTTACCGCACAAGTTTCTTCATCgtgattttatataa
Protein Sequence
MHGLERHTPTSPGMSCRAYVGTPNSTADWDINDSSVPRINEFDPFSEWADGHCRLVYRYGKPCPNRTCPGRLEILPCRGHCGYPVTHFWRHTEHAIFFQAKGVHDHPRPEAKGASEARRTQGGGGRRVRSLAVVLAKEAALGNKLMSLREPKRQCREITSQVSRELNASSLFGDSKNGYCSCPPFECICNYQQPAPATPQQFPASPNSYPHQLPECYWTQDPVHPQLYHYSDSGVPSTTHQYDFNSISTELFQPEEIFSMEQPVKQDPAQNDSARSPPTLLDLGSGTIHREFKSEDYWNGALGSLLVNDDSNNSSNSRFNVSQSPLLNNNLPQVDQNVYPEIKVDGNNQYSMSKMSLYQHSETPYKSFEGHYFLEDKAFQSCEPYQTPKTYHPKTSTQDEYIDLGQFGEYNSYLSSYDPSKSFIQRLKKRKSNTVHSPEEKKIKLDEQHDQRKLKPPCKKNKAKDPFTEDPKVHQSKITTHYKIVKGSLSKPNTTKKKRNWDSCSSDEEFWISKFALKCSKSTSDIPISSETENTEKQHNSLPVTREEVTRGLSVLSRAVRPGLSSKKDKCQVGDVLKKIDKEKRKPSEQVKPETMNNNLSYLNYFTVRANDNASNKRESGSHGRPDKIVSKVEGIKNRKDAMQHHDKNDIEDKETVKEIIDKLVKKGKDGNRTKTFVKGMHSGMAFNIFDKIQQHDQEFDLKCQDLSSSKCLDMRTLHKNDTTSFKVSNENKDINNTNHHQKPVMPKLLDETSTIETIVEETFHKTKNKETNGKASPQNNQNFKNNIFSKTIKKAQIDNVRYDKFSKYSNSGKNKKYVKANEEMCKLISKLTGERAVTEQGNEEIQKLVTKLKNQTEETNSVSETSKDKKELLAATVKNSCCDNEKYVAERTCTYNEVPIHCNTSGNLKIVERQNEKPNNLKSLPLKQSTPLQLFNKAANGIEQDKCGNYKYNNKQEYSLICNKSGKVVSFEEHTEISQEIDSNNNISSEMEQKDEYLEKSSSDSVKACEGKQLLKKRQAVGQNYSMPTEKERIMHMLHYNTKLTGSVKNTQQMENIFKDMKPLSEIRQSTPNSLGVELGSGKIEDYDIHSIIRRLATDTEKFEVNNDQNRTNTLHQSCFLESNEAKELDVIKQNMGNLQDTNQVANIKNSTLENANDHISVLYFKNRSKFRHKQNSKENTIAGVLHDNDGIKAASTNTSLSVSFDPHEEGTDRLFNSVTSDESKNVQKEKEFPFTAPIMNIIAKLNKNSFDCPTRTDAVYSQNPLNSDVPRPFTEENKEAQSVQGSQTNALTNKEIMSLNKVPDPGCIGNNTFKKPKGNIEQKRLTKENNSNKHVEKNVVCLPIGGLAVRQKNAVVARDLYHKHVLTPNEKVPCDEKFIDRTKLDDGVDKLRQIQSKKHSEEIKHLIMENSSASLLDDPKTDVEKHEIHANDNFLKIFRRQTKILDNESLRVQNVTNVSSEHSVGTIDTVFADDQQKLVNKILFEISCGKSDEPTNCSSNILSPKKSNGDLRKDVKRQEINLERKNEIQSVTDVQSSRDVCKKSISIKTTEDEIVSSSMLLKTKRNIVQNEVKSGTNITEDQIINNVLLGTTCHELKSQPNTTILKDTFISSSHSVTNCEINVGSESCVHTQNSKPFNHPNQSSEDELSDKLWIKNSVFLKQRSDTSQLSQCLLNDQKDENNKIIENHDLSSHSIFEPESNLENPIQSCFHEKNRELLIRPKMNDDVNNNVTKNCDTRNSLLLSATKSSEANQTQITCIFDKNEQNNMMPKKTHISIKANELLADEEINRILTKNYEQCMRSKENNASQTRDDAISKLLKKTEDQKPKAKDIIKKYRKGKLKIYRLKKMKKPSKDLDKVEENLDFDDVFKKLTQDFQEPARCSSPCESLVSTPSSYKSVSTLRSETPTESKELSSFQRKLREGIELYYQLKDMINGQGVVDRAINLVSCLLNVGMWALNIIAQKGLIFGNLKIMLSSGETINCNVPDAYFILVVEKEAIFQKLLEEDIPNKLTRPFIMMTGKGFPDLNTQLFLRKLWIIMRIPVFILVDADPHGINIMLNYRFGSVANAHVSHHLAVPKARWLGLLPSEITMFNVKKQAMSTNEQKMVEKLLNTPYMKDNPGIVEELKILQKNNLKAGIEGLIKTDVFLSQVYLPHKFLHRDFI

Similar Transcription Factors

Sequence clustering based on sequence similarity using MMseqs2

100% Identity
-
90% Identity
-
80% Identity
-