Detailed information    

insolico Bioinformatically predicted

Overview


Name   luxQ   Type   Regulator
Locus tag   GO174_RS15405 Genome accession   NZ_CP046858
Coordinates   34095..36662 (-) Length   855 a.a.
NCBI ID   WP_158125779.1    Uniprot ID   -
Organism   Vibrio fluvialis strain 2015AW-0233     
Function   autoinducer sensor (predicted from homology)   
Competence regulation

Genomic Context


Location: 29095..41662
Locus tag Gene name Coordinates (strand) Size (bp) Protein ID Product Description
  GO174_RS15380 modA 29790..30575 (-) 786 WP_158125777.1 molybdate ABC transporter substrate-binding protein -
  GO174_RS15385 - 30572..32056 (-) 1485 WP_158125778.1 cobyric acid synthase -
  GO174_RS15390 - 32223..32597 (+) 375 WP_020433707.1 NirD/YgiW/YdeI family stress tolerance protein -
  GO174_RS15395 - 32750..33274 (+) 525 WP_020329295.1 hypothetical protein -
  GO174_RS15400 - 33409..34089 (+) 681 WP_020433710.1 flagellar brake protein -
  GO174_RS15405 luxQ 34095..36662 (-) 2568 WP_158125779.1 quorum-sensing autoinducer 2 sensor kinase/phosphatase LuxQ Regulator
  GO174_RS15410 luxP 36684..37781 (-) 1098 WP_024375537.1 autoinducer 2-binding periplasmic protein LuxP Regulator
  GO174_RS15415 - 37993..39150 (-) 1158 WP_158125780.1 conjugal transfer protein TraF -
  GO174_RS15420 - 39264..39545 (-) 282 WP_158125781.1 GIY-YIG nuclease family protein -
  GO174_RS15425 - 39556..40191 (-) 636 WP_020433719.1 YceH family protein -
  GO174_RS15430 - 40236..40433 (-) 198 WP_020329288.1 hypothetical protein -
  GO174_RS15435 - 40623..40940 (+) 318 WP_020329287.1 DUF496 family protein -

Sequence


Protein


Download         Length: 855 a.a.        Molecular weight: 96321.80 Da        Isoelectric Point: 5.0377

>NTDB_id=409018 GO174_RS15405 WP_158125779.1 34095..36662(-) (luxQ) [Vibrio fluvialis strain 2015AW-0233]
MGIRSSTVKQKRKIATFISRAIVTVLGALTLTVLFQSYQISSRLISQEVARTSTQTSSLIQNLFNYRLATLQIHQDSSAK
NASLIQALHGDTNDALDQYFLSVDQLELNNTPDIRFITDLKEMVWEDGNSQFYGVQSKELNAIIRKVSISSNWHLIQTPS
ELGTAYLLVRRSPIVDTATGEVIGFLYVSIVLNNNFALIETIRDSSNSQNLILTVGSEVLASTLNGDESYTAFDVLQDGM
SDMLYDKNMVAKTVLEVEGVPTYLSVYSVQSNENALSLRDNYYFWMVFALVAMVGVSILTRWWLQRRIESEIEGLMTYTH
KVAERGLDDFFPGSKIYEFDHFGRTLEHTFQRLSAQEKQFEDLFNFALSPTILWTADGELIRMNPSAQKHFLRNNAEYHS
LFSVLKRQLIPQIKLAAKGEILKEVNTEVDDKVFLWNLSPIVVENRIESIITQGQDVTSIAEAEKQSRIARREAEESARV
RADFLAKMSHELRTPLNGILGVSQLLKRTVKEKEQAEQVNVLCSSGEHLLAVLNEILDFSKIEQGKFRIQKTHFPLVDVV
SAIERIYRPLCREKGLDLSIDSNIDQTMIVNADQVRLNQILFNLLNNAVKFTHQGAISIQLNLLQEAGDTRLSISVMDTG
IGIRDADLNIIFEPFVQAESTNTREYGGSGLGLAIVHSLIEMLGGTVQVSSTFGVGTRFNIELPMERVTSEKQSIERKEA
ASRYELFDGSIHVLLVEDNHTNAFIAQAFCKKYGMVVDWVTDGLQAIEKVKEQRYDLILMDNQLPYLDGVDATRIIKQEM
GLEIPVYACTADGVVETQQAFMSAGAEYVIVKPIKEDTLHKALVNFKQDHTEWSV

Nucleotide


Download         Length: 2568 bp        

>NTDB_id=409018 GO174_RS15405 WP_158125779.1 34095..36662(-) (luxQ) [Vibrio fluvialis strain 2015AW-0233]
GTGGGCATCAGATCAAGCACAGTCAAACAGAAAAGAAAAATCGCAACGTTCATCAGCCGAGCGATTGTGACGGTGCTTGG
TGCGCTGACGTTGACGGTACTGTTTCAAAGCTATCAAATCAGCAGTCGTTTGATCTCACAGGAAGTGGCCCGCACTTCAA
CTCAAACCTCCAGCCTGATTCAGAACCTGTTCAATTACCGATTGGCCACGCTGCAGATTCATCAGGACAGTAGCGCAAAA
AATGCCAGTTTGATTCAGGCTCTGCACGGCGATACTAATGACGCACTGGATCAGTACTTTCTCAGTGTTGACCAGCTTGA
ACTCAACAATACGCCGGATATTCGTTTCATTACCGACCTCAAAGAGATGGTATGGGAAGACGGCAACTCTCAGTTTTATG
GGGTTCAGTCGAAAGAGCTCAACGCCATCATCCGAAAAGTGTCAATCAGCAGTAATTGGCACCTAATCCAAACGCCTTCA
GAGTTAGGCACGGCCTACCTGCTTGTTCGCCGCTCACCGATTGTGGATACTGCAACCGGCGAAGTCATCGGTTTTCTCTA
CGTCAGTATTGTACTCAACAACAACTTTGCGTTAATAGAGACCATTCGTGACAGCAGTAACTCGCAGAATCTGATTCTGA
CGGTTGGCTCAGAAGTCTTGGCGTCGACTCTGAATGGAGACGAATCCTATACAGCGTTCGATGTGTTGCAGGACGGTATG
AGCGACATGCTGTACGACAAAAACATGGTGGCGAAAACGGTTCTGGAAGTGGAAGGGGTGCCGACGTATCTCAGTGTTTA
CTCAGTGCAGAGCAACGAGAATGCGTTGAGCCTGCGTGACAACTACTATTTCTGGATGGTTTTTGCGCTGGTGGCGATGG
TCGGTGTCTCCATTCTGACGCGTTGGTGGTTGCAGCGACGAATTGAGTCGGAAATTGAAGGGCTGATGACCTACACCCAT
AAAGTGGCAGAGCGTGGACTGGATGACTTCTTCCCCGGCTCAAAAATTTACGAATTTGACCACTTCGGCCGCACGCTGGA
ACACACTTTCCAACGCCTGTCTGCGCAGGAAAAGCAATTTGAGGATCTGTTTAACTTCGCTCTGTCGCCAACCATTCTCT
GGACGGCAGACGGTGAGCTGATTCGTATGAACCCGTCGGCTCAAAAGCATTTTTTACGCAATAATGCGGAATATCATTCC
TTGTTCTCTGTGCTGAAACGTCAGTTGATCCCGCAGATCAAACTGGCGGCAAAAGGCGAGATTCTCAAAGAAGTGAACAC
CGAAGTCGACGACAAAGTGTTCCTGTGGAACCTTTCGCCGATTGTGGTGGAGAACCGTATCGAATCGATTATTACTCAGG
GCCAGGATGTCACCTCGATTGCAGAAGCGGAAAAACAGAGCCGTATTGCACGTAGAGAAGCGGAAGAGTCGGCACGCGTC
AGAGCGGATTTCCTCGCGAAAATGAGCCATGAGCTGAGAACGCCACTGAACGGGATTCTGGGTGTGTCTCAACTCCTTAA
GCGTACAGTGAAGGAAAAAGAGCAGGCCGAGCAGGTTAATGTTTTGTGCAGCAGTGGTGAACATCTGCTGGCAGTGCTGA
ATGAAATTCTGGATTTCTCAAAGATAGAGCAGGGTAAATTCCGGATTCAGAAGACCCATTTCCCGTTGGTCGATGTGGTG
TCGGCCATTGAACGAATTTATCGTCCATTGTGTCGTGAGAAAGGCTTGGATCTCTCGATTGACAGCAATATCGACCAAAC
AATGATTGTAAATGCGGACCAGGTACGTCTGAATCAAATTCTGTTTAATCTGCTCAATAACGCCGTGAAGTTTACCCATC
AGGGCGCCATCAGCATTCAGCTGAATCTGTTGCAAGAGGCGGGCGACACTCGCCTGTCCATTTCGGTCATGGACACAGGT
ATTGGCATTCGTGATGCAGATTTGAATATCATCTTTGAGCCGTTTGTTCAGGCAGAATCGACCAATACCCGCGAATATGG
CGGCAGTGGATTGGGGCTGGCCATTGTGCACAGCCTTATTGAAATGCTTGGCGGCACGGTGCAGGTCAGCTCGACGTTTG
GTGTAGGCACACGTTTTAATATCGAATTGCCGATGGAACGTGTTACCTCTGAAAAGCAGTCGATTGAGCGCAAAGAAGCC
GCATCACGTTACGAGCTGTTCGATGGCAGCATTCATGTTCTGCTGGTTGAGGACAACCATACCAACGCGTTTATCGCACA
AGCCTTCTGCAAGAAATATGGTATGGTCGTCGACTGGGTCACGGATGGATTGCAGGCGATAGAAAAGGTCAAAGAGCAGC
GTTACGATCTGATTCTGATGGACAACCAACTGCCGTATCTCGACGGTGTGGATGCCACGCGCATCATCAAACAAGAAATG
GGCTTAGAAATACCAGTTTACGCCTGTACCGCAGATGGCGTGGTGGAAACTCAGCAAGCGTTTATGTCTGCCGGTGCAGA
ATACGTGATCGTCAAGCCGATCAAAGAAGATACGCTGCACAAAGCATTGGTGAACTTTAAACAAGACCATACCGAGTGGT
CTGTGTAA


Secondary structure


Protein secondary structures were predicted by S4PRED and visualized by seqviz.



3D structure


Source ID Structure

Transmembrane helices


Transmembrane helices of protein were predicted by TMHMM 2.0 and visualized by seqviz and ECharts.



Visualization of predicted probability:


Similar proteins


Only experimentally validated proteins are listed.

Protein Organism Identities (%) Coverage (%) Ha-value
  luxQ Vibrio cholerae strain A1552

63.38

99.649

0.632


Multiple sequence alignment