Basic Information

Gene Symbol
-
Assembly
GCA_037177015.1
Location
JBAGKK010507218.1:1604-9603[-]

Transcription Factor Domain

TF Family
TF_bZIP
Domain
bZIP domain
PFAM
AnimalTFDB
TF Group
Basic Domians group
Description
bZIP proteins are homo- or heterodimers that contain highly basic DNA binding regions adjacent to regions of α-helix that fold together as coiled coils
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 47 0.49 1.7e+03 1.3 0.3 31 58 60 87 54 92 0.67
2 47 0.092 3.3e+02 3.6 1.2 39 63 106 130 101 132 0.70
3 47 0.053 1.9e+02 4.4 0.8 37 58 156 177 145 182 0.63
4 47 6.3e-05 0.22 13.8 0.6 25 56 216 247 212 254 0.90
5 47 9.4 3.3e+04 -2.8 2.4 31 63 280 312 277 313 0.89
6 47 0.15 5.1e+02 3.0 0.2 27 61 370 404 367 408 0.81
7 47 0.029 1e+02 5.2 6.1 26 61 436 471 431 475 0.58
8 47 0.026 92 5.4 6.0 29 63 467 504 466 506 0.87
9 47 0.00067 2.4 10.5 10.3 24 65 530 571 527 571 0.92
10 47 0.0026 9.1 8.6 4.3 29 64 570 605 567 613 0.71
11 47 1.5e-05 0.053 15.7 8.2 22 65 612 655 610 655 0.95
12 47 0.0013 4.6 9.5 6.4 29 64 647 682 646 683 0.93
13 47 3 1.1e+04 -1.2 10.8 24 64 719 759 715 764 0.88
14 47 0.0095 33 6.8 3.7 32 62 762 792 759 794 0.91
15 47 1.3e-05 0.047 15.9 2.6 24 58 789 823 788 823 0.94
16 47 2.4e-05 0.083 15.1 12.0 21 64 807 850 807 851 0.94
17 47 1.3 4.7e+03 -0.1 9.6 24 64 901 941 900 947 0.86
18 47 0.026 90 5.4 5.6 32 62 944 974 937 976 0.88
19 47 2.3e-06 0.0081 18.3 3.7 24 58 971 1005 970 1006 0.96
20 47 1.4e-05 0.048 15.9 8.1 29 64 997 1032 996 1033 0.95
21 47 0.0097 34 6.8 10.9 21 62 1045 1086 1045 1089 0.93
22 47 0.062 2.2e+02 4.2 6.9 24 63 1083 1122 1081 1123 0.88
23 47 0.00015 0.53 12.5 6.2 22 59 1102 1139 1100 1143 0.95
24 47 0.046 1.6e+02 4.6 3.8 23 60 1145 1182 1143 1184 0.89
25 47 7.6e-06 0.027 16.7 3.7 21 61 1171 1211 1167 1215 0.82
26 47 0.051 1.8e+02 4.4 2.8 29 65 1207 1243 1206 1243 0.93
27 47 0.00026 0.9 11.8 6.3 32 65 1231 1264 1222 1264 0.89
28 47 3.2e-05 0.11 14.7 8.0 22 64 1242 1284 1240 1285 0.91
29 47 0.0025 8.6 8.7 3.4 29 61 1277 1309 1272 1313 0.86
30 47 0.15 5.3e+02 2.9 1.7 24 62 1300 1338 1298 1340 0.85
31 47 0.00083 2.9 10.2 6.5 25 63 1336 1374 1334 1376 0.92
32 47 0.0019 6.7 9.0 5.9 31 63 1377 1409 1368 1425 0.52
33 47 0.23 8e+02 2.4 3.0 24 61 1433 1470 1418 1474 0.69
34 47 8e-06 0.028 16.6 4.9 24 65 1468 1509 1465 1509 0.91
35 47 3.4e-05 0.12 14.6 0.9 22 62 1487 1527 1487 1530 0.91
36 47 0.015 52 6.2 0.5 24 63 1531 1570 1528 1572 0.85
37 47 2.8e-07 0.00098 21.3 7.8 25 63 1574 1612 1570 1613 0.95
38 47 2.3 8.1e+03 -0.9 0.1 39 64 1623 1648 1618 1649 0.72
39 47 0.0029 10 8.4 4.8 23 65 1649 1691 1647 1705 0.74
40 47 0.062 2.2e+02 4.2 7.9 31 62 1717 1748 1711 1749 0.91
41 47 0.00099 3.5 9.9 2.3 25 61 1739 1775 1737 1779 0.91
42 47 0.001 3.6 9.9 7.7 13 62 1783 1832 1774 1835 0.86
43 47 0.029 1e+02 5.2 3.1 26 64 1845 1883 1839 1884 0.81
44 47 0.045 1.6e+02 4.6 1.3 22 62 1883 1923 1882 1925 0.80
45 47 0.00075 2.6 10.3 12.2 22 65 1932 1975 1930 1975 0.93
46 47 0.11 3.8e+02 3.4 2.5 30 52 1968 1990 1967 1991 0.55
47 47 9.9 3.5e+04 -2.9 0.2 38 55 2185 2202 2183 2211 0.62

Sequence Information

Coding Sequence
atGAATGATTCGTCTGGACAATTTTGCCACTGTGGCTGCGATGCTCCAGGGACTTTTAAACCAGAGGATCCACCAAATGAACCATGTTGTTGTTGTAATTATAATCCATTTAGTGACAATTCGAAGGATGCAGAAATTTACGATCTGCCCTTTGCCCTTCGAAAACTAACGGTAATGAAGTGCCAAATGAAAAAGTGGCGAATGGAACGACTTCAATTGGAGAGTGAAACTCGATCTTTAAAACAAGCACTTCAACAATatgGTATTAACATTGATGAGGCCTTAAAACCTGATCCCTTGATTGTCCACTTCCGAGAGGAAAATCTGAGACTCCAAAATCTTAATGATCAATTGGAGGATAAAGTCAAGGACCTTAAAGAAACTTTGGATGAACGTGATTACTATGACGATCCATGCGATTCTGTAAAATACATCAGAGAAAAAATGAAGGAACTTCGAAATCATTTTGCCGATGAAAAGAAACAATTAAGAGAAGAAATAGCAGCTTTGAAACTGAAGCTTGCAGAAATGGATGACGACACTTCATGTGCAGCACTAAATCGTTTAAGAGCAAAACTTCGTGAATTGATGAATGGTGGACAGAAGGCTGACCACCAAGTTTCGATGGTTGTGGAAAAATCTATAGAAACTATGATGGAACTTTCGAAAAGCTGCACAGATTTGAAATCTGAAAACGACAGACTTTTGGATGAATTAGAAGCTCTTCGAAGAAAATTCGGACTTGAAAAGGACACTTCGACAGAAGATGTCATTACTCATGAAATGGGATTGCAACAATCATTGGAACAAACAGACTTATATGAAGGAGTAGATTTATATGAACAACTGAAAAAGTGCCAGGCTCTAGTTGCTGATTTGAGAAATCAAATTGCTGAGAAGGATGAAATCCTGAATGATTTGGAAAATAAActtcaagaagaaaaaagaatttcaggaCAACTTGAAGAAGATTTGGACAAAATGACTGTTAGCCACCGAGCCTTCATGAAGGAAGTTGCTGATATGAAGgatgaattaaaaaagagagatgaaaaggTCACTGAGCTTGTAGGAAATTTAAGAAGCTCAGCTTTAAATCTTCTTGGTATGGAGAAACTGTCAGACGAAATTGAGGCACTAAAACCTCAGTTGTACGACCTTAAAACAGAAAAAGGAGAACTTTTAGATGAACTTGGAAAAATACGAGGCGTCGTGTCTGAAAGAAATGACcaaatcatcaaaattttagaagaaaaagacaaaatgAGAAGCGATTGTAACGCTAAATTAATTGCTATGCAGACTAGGGTAGAAGCCTTATTAGTCCAAGAAGATATACTTAAAAAGGAAATTGAAGATTTGAAATCAGAAATCAAAGAACTAGAAAATGAACTAGCAGAGCTACAAGCCAAAATATTGGAACTGGAAGAAAAAAGCAGCGAAAATGAAGCCTTGAGGAAGAAGATTCGTGATCTTGAGGATCAACTTGCTAAATTAAATGCTGAACTATCTGCAGCTCAGAGTCACGCTCAAGAACTTGTAAATGagGCAGAAATTGAGAAATTGAAGAAAGATTTGGATGCTGAAAGAGCAGCAAAAGAAAGTGTTTCTAAAGAACTCGAAGCCTGCAAGGCAGAATTAGAAAAACTGaaatcagaaaatgaagaattaaagtcagaaaaagagaatttgaagagtaatcttaaaaaattggaGGACGAAATTAAGCATTTGAAAGAAGAGAATGAAATGTTGAAGGCAGAGAATAGTAACAtcattgcagaaaataaaaagtttaaagaaaatattgatcaATTGAAAGAcgagaatgaaaaattaaaagctgcaattgataaactgaaaaatgaattaaaagacCTCGAGACAGAAAAAGATTCTCTTAAAACTGAGTTAAATTCCTTAAATGATGAATTAGAAAAGTTGAAGgctgaaataaagaaattgtcaAATGAAAATGCAGCTCTTAAAGAAGAATTAACTGGTCTAAGGGCGGAAAAAGATAAATTGGAGCAAGATTTGAAAAAAGCTCAAAtagaaatcgaaaaattgaaaagtgatttAGAAAAAGAGAAATCTGAAAAGGAAGTTGCCTTGAAGGAACTGGAAGGTCTTAAAAAGAAGACGAGTTTAATGAAAGATGagctggaaaatttgaaaacccaATTGGAAAAAGCATCAGCTAATTTGGCAGATCTTAAGGAGCAgaatgagaaattgaaaaatgatttggaAAATGTGAAAGACCAACTAGAGAAATCATTATCTGAATTAGCCGCTTTGAAAGAACAAAATGGGAAGTTAAAAGATGAATTGGAGACTTCGAAAAGGGAGAATGAGGCactcaaaacaaaaattgataatcTCGCATCCGATATTGAAAAACTTAAAtcagaaaatgataaattattgaacgaaaataataaattaaaggcAGAAGTTTATCAGCTGGAAGAAGAAAATACAAAACTTAAAGAAGAGAATACAAAAATGAAAGACGAGAATCATAAGCTCaaagaaaacttagaaaaatcAAACGCTGTTTTAGAAACGCTGAAGTCAGATTTTGACAAAATGAAATCAGAGaatgaagaaatgaagaaagatttagaaaaagagAAATCTGAAAAGGAAGTTGCCTTGAAGGAACTGGAAGATCTTAAAAAGAAGACGAGTTTAATGAAAGATGagctggaaaatttgaaaacccaATTGGAAAAAGCATCAGCTAATTTGGCAGATCTTAAGGAGCAgaatgagaaattgaaaaatgatttggaAAATGTGAAAGACCAACTAGAGAAATCATTATCTGAATTAGCCGCTTTGAAAGAACAAAATGGGAAGTTAAAAGATGAATTGGAGACTTCGAAAAGGGAGAATGAGGCactcaaaacaaaaattgataatcTCGCATCCGATATTGAAAAACTTAAAtcagaaaatgataaattattgaacgaaaataataaattaaaggcAGAAGTTGATCAGCTggaagaagaaaatataaaactgaaagAAGAGAATACAAAAATGAAAGACGAGAATCATAAgctgaaagaaaatttagaaaaatcaaacgCTGCTTTAGAAAAGCTGAAGTCAGATTTTGACAAAATGAAATCAGAGaatgaagaaatgaagaaaGATTTAGATAAAGTGAAAGCTGAAACagaaaagttgcaaaatgaatTGAAGAATTTGTCAGAAGAATTAgataatatcaaaaaagaaaaagaaaatctgcAAGCAAAATTAACAGGTCTTGAATCTGATTTAGAAAAGCTGAAAGTAGAGAATAATGGTTTGAATTCAGAACTCAAGAAAGCAAAAGAAGagaacgaaaaattaaaaaatgaagtggaTTCTATAAAGGACGAAAATGCAAAGCTTAAGATAGAAGGAGATTctcaaaaagaggaaaaagacaAAACAAATGCAGAAATTAAATccttaaaagaacaaaatgaagAATTATCACGTGCTCTTGACAAATCTAAATCAGAAGTAAGTTCTCTAAAAGGAGAAGTCGATCGTTTGAAATCAGAAATTGAGAGTTTGAAATCAGAACTTCAGAGTTTGAAATCAGAACTTGAGAGTTTGAAATCAAGAAAGGAAGCAGTTGAAGATGAATTAAATGCTTTGAAAAAAGAGTTGAAAGACTTTCTCGCAAAGTTTGATGAACTCAAAGATGAAAACAGTAAATTGAAGTCAGAAAGGGATAAACTTCAAAAGCAGATGAACGATTTGAAGAACGAATTATCAAGACTAGATGCAGAAAATTCGGAATTGAGGGACGAACTTGCGAAGTTAAAATCAGAGCTAGCTAAGATTATGGCAGAAAATACTAGATTGAAAAAGGAAATTGCAAAACTGACAGAAGATAATGATAAAAGTCAGGCAGAATGTTGCAAGCTTAAACTTGATATTGACAAGTTAAATGCgtcagttgaaaatttgaagaaagaaTTGAGCGACTGTGAAGAGAAGATAAGAGAACTTGAAGATCAACTCTCCGAAAAGGAAGctgagaaaaagaaattgaaacgaGAAATTGAAGGTTTGAAGAATGATTTGGCAGCACAGAGAGCTGAGATAGAAGCAGCTTTGAAGAAAGTGGCAGATCTTAGTGAAGAACTTGGACTTCTGAAAGCTGAATTGGCTAAGTTGAGATCAGAAAATGCTCAGCTTAAAGCAGAAATCGATGATCTGAAGAAAAGACTAACTTTGGCTAAGGATGAATTGAACAATGCTAACAGTGAAATTTCagctttgaaaaatgataacaaTAAATTGAAAGGCCAAGGAGACACTTTAGCTAATGAAAGTGAAAAGTTGAGAGGAGAGGCGAACAAATTTAAATCTGAGCTTGAAGCTCAAAGAAACGAAAATGCCAAGTTAAAAGGTGAAGCTGAAAAGCTGGCAGCAGAAAATCTTAAACTTAAAAGTGAAGTTGATGGATTGAAAAATGAAGTTAGTGGGCTGAAGAACGAAAATACTAAACTTCAAAATGAACTAGCATCTGCAAAAATTGAAGCTGGTAAGTTGAAATCAGATTTGGCTGCTTCTAGagctgaaaatgaaaaattaaaaggggatataattaatttaaaaagtgaagtTGGGATATTAAAGGAAGAAGTAAATACTATGAAAGCTGAGTCTGAAAGattgaaaaagtccttgaatgaTGCAGAGGCCAAGATTAAAACTTTGGAAAATCAAGTTGCAGCTTTAGAAGACGAAAAAGCAAAGCTTCTTAAAGAATTAAGCAGTTTGAGGGCTGAAgtggaaaagttgaaaaaggaaTTGGAATCTGAGAAAAGTGCTAAAGATGCAGCACTTAAAGAAGCAGCTGGTCTCAAATCTGAATTAGCAACGATGAGAGGTGAATTAGAAAAATCCAGAGCagataatgaaaaattgaaagctgATTTGGAAGcaacgaagaaaaatattgcTGATTTGACAACTGAAAATGGAGTTTTAAAAtcagatttagaaaaattgagGAACGAATTGAATGCCCtaaagaatgaaaattcgaaacttaAAGACAATTTGGACAAATTGAGAACTAATCTAGATGAAGTCACAGCCGATTTTAATGCTTATAAAGCAGATAAGgaaaaggaattaaataatttgaaagtagagaatgctcaattaaaaaaagaacttgCAGATTTGCAAGCaaagatgaaaaatttagaagatcaACTCAAAGGTCTTCAGGATGCTAAAGCAAAATTGGAAGCAGAGATTGCTGACTTTAACTCACAGATGGAAAAACTGAACAAGGATCTAGCTACTGAGAAATATGCTAAAGAAGCTGCTCAAAAGGAACTCGAAgctttgaaaaatactttagctgatttgagaaaagaaataggaagaTGTAAGGAAGAAAATGAGAAGCTCatattagaaaatgcaaatttgaaGAAACAAGTTGACAAGTGGAAAAACGATGCCGAAAAATTTAAAGGAGATTTGGATAAAGTTGGGGCTGAGAATGAAAAGCTGAAAGCTGATGCTAATAAGTTGAAGGCAGATTTCGAGAGGCTGAAAgcagaaaatgataaaatgaaaGATGACCTTGAAAAATCAAAAGCAGAAGCAGAAAAGTTGCGAGATGATATTCAAAAAGCAAAGGCAGATGCCGATAAATTAAcagctgaaaataaaaagttgaaaaatgatttagatGTGGCAAAAGAGGGATCTGATATGTTAAAAGCTCAAGTTAGCAAAGGAAGTGTGGAATCTAACAAGTGGAAAGAAGAATTAGATAAGTTGAGAGCTGAGCTTGCTAAATGTAAAGCTGAAAATGACAAACTAAAGGCAGAAAAGGAAaaactgaaaactgaaaatgaaaaactgaaaactgaaaataaaaaactggagggagaaaatgaaaaactgaaaactagaattgaaaaactgaaaactgGGGATGGAAAATCAAAACCTGTTGGTGATGACAAAGCTTTACTCACAAAGGAAACTGGGAAACCTGAAGTGGACACTGGAATATTATCAGATGAAGACGGATGTGgagattttattaaatccaatgagcttttaaaaaagaggATCCAGGAACAAAATGAAGCTATCGATCGTGTCAGAGAATTTATTGGCTTTGTGGaaggtaaaaataaaacgaaaccTAAGATGGCTGAAGATTACAATACTGATGGCGATTCGGGTGATTGGATAGTACCAGCAGTTAATGAAGTTATGGAAAAGTCACAGAAACTatccgaaaatatttttaaagctgAGCAGGAAATACAaaaccttgaaaattttctacaacGAAAGAGCATTTTGGATTCGGAGTCGGGAGATTTTATTGCTGATTCCTGGTTGAAATCATTGACACTGACGCAATTGGCTGAGCTTCACGATAAAGTTTGTCTGCTTACGTCGTCAATGGTTGAAGCTGATAGCAGTTCATTGGGTTCAGAAAGAGCATTGCCAGAAGATCAATTACAAGACGTCTCTCAAGGATCAGATAATCCTTTGGAAAGAGATTACGACACACTAAATAAGAGAATATCAGCACTCCAGAAGCAAATTTCTGAAAAGGAATTGGAAGCTGCGAGAAAAATGTATGAGATGAGAAACGTTCTTCGTCAAGAACAACTGCAATTGATTAGACTTTCCGAAGAAATGACCCAggagaaaaaacgaaatttagCCCTTCAGATGACCATTGATCAAGAACCTTGCTGGATAAACAGTTGCAAGGCTGAATGTGGTGGAGATTTTGATCATctcagagaaaattaa
Protein Sequence
MNDSSGQFCHCGCDAPGTFKPEDPPNEPCCCCNYNPFSDNSKDAEIYDLPFALRKLTVMKCQMKKWRMERLQLESETRSLKQALQQYGINIDEALKPDPLIVHFREENLRLQNLNDQLEDKVKDLKETLDERDYYDDPCDSVKYIREKMKELRNHFADEKKQLREEIAALKLKLAEMDDDTSCAALNRLRAKLRELMNGGQKADHQVSMVVEKSIETMMELSKSCTDLKSENDRLLDELEALRRKFGLEKDTSTEDVITHEMGLQQSLEQTDLYEGVDLYEQLKKCQALVADLRNQIAEKDEILNDLENKLQEEKRISGQLEEDLDKMTVSHRAFMKEVADMKDELKKRDEKVTELVGNLRSSALNLLGMEKLSDEIEALKPQLYDLKTEKGELLDELGKIRGVVSERNDQIIKILEEKDKMRSDCNAKLIAMQTRVEALLVQEDILKKEIEDLKSEIKELENELAELQAKILELEEKSSENEALRKKIRDLEDQLAKLNAELSAAQSHAQELVNEAEIEKLKKDLDAERAAKESVSKELEACKAELEKLKSENEELKSEKENLKSNLKKLEDEIKHLKEENEMLKAENSNIIAENKKFKENIDQLKDENEKLKAAIDKLKNELKDLETEKDSLKTELNSLNDELEKLKAEIKKLSNENAALKEELTGLRAEKDKLEQDLKKAQIEIEKLKSDLEKEKSEKEVALKELEGLKKKTSLMKDELENLKTQLEKASANLADLKEQNEKLKNDLENVKDQLEKSLSELAALKEQNGKLKDELETSKRENEALKTKIDNLASDIEKLKSENDKLLNENNKLKAEVYQLEEENTKLKEENTKMKDENHKLKENLEKSNAVLETLKSDFDKMKSENEEMKKDLEKEKSEKEVALKELEDLKKKTSLMKDELENLKTQLEKASANLADLKEQNEKLKNDLENVKDQLEKSLSELAALKEQNGKLKDELETSKRENEALKTKIDNLASDIEKLKSENDKLLNENNKLKAEVDQLEEENIKLKEENTKMKDENHKLKENLEKSNAALEKLKSDFDKMKSENEEMKKDLDKVKAETEKLQNELKNLSEELDNIKKEKENLQAKLTGLESDLEKLKVENNGLNSELKKAKEENEKLKNEVDSIKDENAKLKIEGDSQKEEKDKTNAEIKSLKEQNEELSRALDKSKSEVSSLKGEVDRLKSEIESLKSELQSLKSELESLKSRKEAVEDELNALKKELKDFLAKFDELKDENSKLKSERDKLQKQMNDLKNELSRLDAENSELRDELAKLKSELAKIMAENTRLKKEIAKLTEDNDKSQAECCKLKLDIDKLNASVENLKKELSDCEEKIRELEDQLSEKEAEKKKLKREIEGLKNDLAAQRAEIEAALKKVADLSEELGLLKAELAKLRSENAQLKAEIDDLKKRLTLAKDELNNANSEISALKNDNNKLKGQGDTLANESEKLRGEANKFKSELEAQRNENAKLKGEAEKLAAENLKLKSEVDGLKNEVSGLKNENTKLQNELASAKIEAGKLKSDLAASRAENEKLKGDIINLKSEVGILKEEVNTMKAESERLKKSLNDAEAKIKTLENQVAALEDEKAKLLKELSSLRAEVEKLKKELESEKSAKDAALKEAAGLKSELATMRGELEKSRADNEKLKADLEATKKNIADLTTENGVLKSDLEKLRNELNALKNENSKLKDNLDKLRTNLDEVTADFNAYKADKEKELNNLKVENAQLKKELADLQAKMKNLEDQLKGLQDAKAKLEAEIADFNSQMEKLNKDLATEKYAKEAAQKELEALKNTLADLRKEIGRCKEENEKLILENANLKKQVDKWKNDAEKFKGDLDKVGAENEKLKADANKLKADFERLKAENDKMKDDLEKSKAEAEKLRDDIQKAKADADKLTAENKKLKNDLDVAKEGSDMLKAQVSKGSVESNKWKEELDKLRAELAKCKAENDKLKAEKEKLKTENEKLKTENKKLEGENEKLKTRIEKLKTGDGKSKPVGDDKALLTKETGKPEVDTGILSDEDGCGDFIKSNELLKKRIQEQNEAIDRVREFIGFVEGKNKTKPKMAEDYNTDGDSGDWIVPAVNEVMEKSQKLSENIFKAEQEIQNLENFLQRKSILDSESGDFIADSWLKSLTLTQLAELHDKVCLLTSSMVEADSSSLGSERALPEDQLQDVSQGSDNPLERDYDTLNKRISALQKQISEKELEAARKMYEMRNVLRQEQLQLIRLSEEMTQEKKRNLALQMTIDQEPCWINSCKAECGGDFDHLREN

Similar Transcription Factors

Sequence clustering based on sequence similarity using MMseqs2

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