Detailed information    

insolico Bioinformatically predicted

Overview


Name   amiA3   Type   Regulator
Locus tag   R8611_RS01745 Genome accession   NZ_AP026927
Coordinates   334839..336821 (+) Length   660 a.a.
NCBI ID   WP_050199887.1    Uniprot ID   -
Organism   Streptococcus pneumoniae strain PZ900700178     
Function   binding to XIP (predicted from homology)   
Competence regulation

Genomic Context


Location: 329839..341821
Locus tag Gene name Coordinates (strand) Size (bp) Protein ID Product Description
  R8611_RS01730 (PC0174_03360) - 330814..332226 (+) 1413 WP_050148500.1 flippase -
  R8611_RS01735 (PC0174_03370) glf 332238..333338 (+) 1101 WP_050148498.1 UDP-galactopyranose mutase -
  R8611_RS01740 (PC0174_03380) - 333419..334477 (+) 1059 WP_050148496.1 acyltransferase family protein -
  R8611_RS01745 (PC0174_03390) amiA3 334839..336821 (+) 1983 WP_050199887.1 peptide ABC transporter substrate-binding protein Regulator

Sequence


Protein


Download         Length: 660 a.a.        Molecular weight: 73022.64 Da        Isoelectric Point: 4.7528

>NTDB_id=98486 R8611_RS01745 WP_050199887.1 334839..336821(+) (amiA3) [Streptococcus pneumoniae strain PZ900700178]
MKSSKLFALAGVTLLAATTLAACSGSGSSTKGEKTFSYIYETDPDNLNYLTTAKAATANITSNVVDGLLENDRYGNFVPS
MAEDWSVSKDGLTYTYTIRKDAKWYTSEGEEYAAVKAQDFVTGLKYAADKKSDALYLVQESIKGLDAYVKGEIKDFSQVG
IKALDDQTVQYTLNKPESFWNSKTTMGVLAPVNEEFLNSKGDDFAKATDPSSLLYNGPYLLKSIVTKSSVEFAKNPNYWD
KDNVHIDKVKLSFWDGQDTSKPAENFKDGSLTAARLYPTSASFAELEKSMKDNIVYTQQDSITYLVGTNIDRQSYKYTSK
TSDEQKASTKKALLNKDFRQAIAFGFDRTAYASQLNGQTGASKILRNIFVPPTFVQADGKNFGDMVKEKLVTYGDEWKDV
NLADSQDGLYNPEKAKAEFAKAKSALQAEGVTFPIHLDMPVDQTATTKVQRVQSMKQSLEATLGADNVIIDIQQLQKDEV
NNITYFAENAAGEDWDLSDNVGWGPDFADPSTYLDIIKPSVGESTKTYLGFDSGEDNVAAKKVGLYDYEKLVTEAGDEAT
DVAKRYDKYAAAQAWLTDSALIIPTTSRTGRPILSKMVPFTIPFALSGNKGTSEPVLYKYLELQDKAVTVDEYQKAQEKW
MKEKEESNKKAQEDLAKHVK

Nucleotide


Download         Length: 1983 bp        

>NTDB_id=98486 R8611_RS01745 WP_050199887.1 334839..336821(+) (amiA3) [Streptococcus pneumoniae strain PZ900700178]
ATGAAAAGTTCAAAACTATTTGCCCTTGCGGGCGTGACATTATTGGCGGCGACTACTTTAGCTGCATGCTCTGGATCAGG
TTCAAGCACTAAAGGTGAGAAGACATTCTCATACATTTATGAGACAGACCCTGATAACCTCAACTATTTGACAACTGCTA
AGGCTGCGACAGCAAATATTACCAGTAACGTGGTTGATGGTTTGCTAGAAAATGATCGCTACGGGAACTTTGTGCCGTCT
ATGGCTGAGGATTGGTCTGTATCCAAGGATGGATTGACTTACACTTATACTATCCGTAAGGATGCAAAATGGTATACTTC
TGAAGGTGAAGAATACGCGGCAGTCAAAGCTCAAGACTTTGTAACAGGACTAAAATATGCTGCTGATAAAAAATCAGATG
CTCTTTACCTTGTTCAAGAATCAATCAAAGGGTTGGATGCCTATGTAAAAGGGGAAATCAAAGATTTCTCACAAGTAGGA
ATTAAGGCTCTGGATGATCAGACAGTTCAGTACACTTTGAACAAACCTGAAAGTTTTTGGAACTCAAAAACAACCATGGG
TGTGCTTGCGCCAGTTAATGAAGAGTTTTTGAACTCAAAAGGGGATGATTTTGCCAAAGCTACGGATCCAAGTAGTCTCT
TGTATAATGGACCTTATTTGTTGAAATCCATTGTGACCAAATCTTCTGTTGAATTTGCGAAAAATCCGAACTACTGGGAT
AAGGACAATGTGCATATTGACAAAGTTAAATTGTCATTCTGGGATGGTCAAGATACCAGCAAACCTGCAGAAAACTTTAA
AGATGGTAGCCTTACAGCAGCTCGTCTCTATCCAACAAGTGCAAGTTTCGCAGAGCTTGAGAAGAGTATGAAGGACAATA
TTGTCTATACTCAACAAGACTCTATTACGTATCTAGTTGGTACAAATATTGACCGTCAGTCCTATAAATACACATCTAAG
ACCAGCGACGAACAAAAGGCATCGACTAAAAAGGCTCTCTTAAACAAGGATTTCCGTCAGGCTATTGCCTTTGGTTTTGA
TCGTACAGCCTATGCCTCTCAGTTGAATGGACAAACTGGAGCAAGCAAAATCTTACGTAATATCTTTGTTCCACCAACAT
TTGTTCAAGCAGATGGTAAAAACTTTGGCGATATGGTCAAAGAGAAATTGGTTACTTATGGGGATGAATGGAAGGATGTT
AATCTTGCAGATTCTCAGGATGGTCTTTACAATCCAGAAAAAGCCAAGGCTGAATTTGCTAAAGCTAAATCAGCCTTACA
AGCAGAAGGTGTGACATTCCCAATTCATTTGGATATGCCAGTTGACCAAACAGCAACTACAAAAGTTCAGCGCGTCCAAT
CTATGAAACAATCCTTGGAAGCAACTTTAGGAGCTGATAATGTCATTATTGATATCCAACAACTACAAAAAGACGAAGTA
AACAATATTACATATTTTGCTGAAAATGCTGCTGGCGAAGACTGGGATTTATCAGATAATGTCGGTTGGGGTCCAGACTT
TGCCGATCCATCAACCTACCTTGATATCATCAAACCATCTGTAGGAGAAAGTACTAAAACATATTTAGGGTTTGACTCAG
GGGAAGATAATGTAGCTGCTAAAAAAGTAGGTCTATATGACTACGAAAAATTGGTTACTGAGGCTGGTGATGAGGCTACA
GATGTTGCTAAACGCTATGATAAATACGCTGCAGCCCAAGCTTGGTTGACAGATAGTGCTTTGATTATTCCAACTACATC
TCGTACAGGGCGTCCAATTTTGTCTAAGATGGTACCATTTACAATACCATTTGCATTGTCAGGAAATAAAGGTACAAGTG
AACCAGTCTTGTATAAATACTTGGAACTTCAAGACAAGGCAGTCACTGTAGATGAATACCAAAAAGCTCAGGAAAAATGG
ATGAAAGAAAAAGAAGAGTCTAATAAAAAGGCTCAAGAAGATCTCGCAAAACATGTGAAATAA


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
  amiA3 Streptococcus thermophilus LMD-9

58.396

100

0.585

  amiA Streptococcus salivarius strain HSISS4

57.943

100

0.58

  amiA3 Streptococcus thermophilus LMG 18311

57.791

100

0.579


Multiple sequence alignment