Detailed information    

experimental Experimentally validated

Overview


Name   clpC   Type   Regulator
Locus tag   STU_RS10020 Genome accession   NC_006448
Coordinates   86146..88596 (+) Length   816 a.a.
NCBI ID   WP_011225298.1    Uniprot ID   Q5M6G1
Organism   Streptococcus thermophilus LMG 18311     
Function   degradation of ComX   
Competence regulation

Function


σX degradation is performed by the MecA–ClpCP complex.


Genomic Context


Location: 81146..93596
Locus tag Gene name Coordinates (strand) Size (bp) Protein ID Product Description
  STU_RS19010 - 81472..82424 (-) 953 Protein_59 S66 family peptidase -
  STU_RS10000 (stu0073) rpsB 82947..83714 (+) 768 WP_002944541.1 30S ribosomal protein S2 -
  STU_RS10005 (stu0074) tsf 83825..84865 (+) 1041 WP_002949105.1 translation elongation factor Ts -
  STU_RS10010 (stu0075) - 84976..85446 (-) 471 WP_011225296.1 COG2426 family protein -
  STU_RS10015 (stu0076) - 85690..86145 (+) 456 WP_011225297.1 CtsR family transcriptional regulator -
  STU_RS10020 (stu0077) clpC 86146..88596 (+) 2451 WP_011225298.1 ATP-dependent Clp protease ATP-binding subunit Regulator
  STU_RS10025 (stu0078) pbp3 88724..89957 (-) 1234 Protein_65 D-alanyl-D-alanine carboxypeptidase PBP3 -
  STU_RS10030 (stu0080) pbp3 90127..91374 (-) 1248 WP_041828096.1 D-alanyl-D-alanine carboxypeptidase PBP3 -

Regulatory network


Positive effect      
Negative effect
Regulator Target Regulation
  clpC comX negative effect
  comX ssbA positive effect
  comX comGE positive effect
  comX comGB positive effect
  comX comGD positive effect
  comX comGF positive effect
  comX comGG positive effect
  comX radA positive effect
  comX comEC positive effect
  comX comFC positive effect
  comX recA positive effect
  comX comEA positive effect
  comX comGC positive effect
  comX cinA positive effect
  comX coiA positive effect
  comX comGA positive effect
  comX comFA positive effect
  comX dprA positive effect
  comR comX positive effect
  comR comS positive effect
  comS comX positive effect
  comS comS positive effect
  amiC comS positive effect
  eeP comS positive effect
  amiD comS positive effect
  amiF comS positive effect
  amiA3 comS positive effect
  amiE comS positive effect
  clpP comX negative effect
  mecA comX negative effect

Sequence


Protein


Download         Length: 816 a.a.        Molecular weight: 90284.49 Da        Isoelectric Point: 5.7956

>NTDB_id=329 STU_RS10020 WP_011225298.1 86146..88596(+) (clpC) [Streptococcus thermophilus LMG 18311]
MTIYSRKMQAIFHRAQLEAERFESPFLETWHVLLAMVEVPGSVAYLTFTDFEDRIHSEEIETAAVLAMEKRPKDLSESDI
IDLRAQSPALEAMLQEAQGIASVTGAVEVGSEHVLMAFLLHKDLMVCRLLEVAGFQYKDDSDKPRIIDLRRSLERNAGLS
KQDLKAIHDLRKPKKSKASANFANMMQPPQSSTGELADYTKDLTALAESGNLDPIIGRDEEISRMIQVLSRKTKNNPVLV
GEAGVGKTALALGLAQRIASGEVPFELADMRILELDMMSVVAGTRFRGDFEERMNQIIDEIEADGKIILFIDELHTIIGS
GSGIDSTLDAANILKPALARGTLHMVGATTQAEYQKHIEKDAALSRRFAKITIEEPSVSEAIDILNGLRSSYEDYHRVTI
TDAAVETAVKAAHRYLTSKNLPDSAIDLLDEASATVQVRIKKEAKREITPLDEALISGDIGAAVKQYKANQKAKFPKPAL
VDADQIMQTLSRLSGIPVEKMTQTDSKRYLNLESELHKRVIGQDEAVSAISRAIRRNQSGIRTGKRPIGSFMFLGPTGVG
KTELAKALAEVLFDDESALLRFDMSEYMEKFAASRLNGAPPGYVGYDEGGELTEKVRNKPYSVLLFDEIEKAHPDIFNVL
LQVLDDGVLTDSRGRKVDFSNTIIIMTSNLGATALRDDKTVGFGAQTISHNHQAMQARIMEELKKSYRPEFINRIDEKVV
FHSLEEEQLHDIVKIMVKPLISALADKGISLKFQPAALKHLAKDGYDIEMGARPLRRTIQTQVEDKLSELLLGGQVVSGQ
TLKIGCSKDKLTFTVV

Nucleotide


Download         Length: 2451 bp        

>NTDB_id=329 STU_RS10020 WP_011225298.1 86146..88596(+) (clpC) [Streptococcus thermophilus LMG 18311]
ATGACGATATATTCAAGAAAAATGCAGGCCATTTTCCATCGTGCTCAGCTTGAAGCGGAGCGTTTTGAAAGTCCTTTCTT
GGAGACTTGGCATGTGCTTCTAGCTATGGTTGAGGTTCCGGGATCTGTAGCCTACTTAACATTTACTGATTTTGAGGACC
GTATTCATTCGGAAGAGATTGAGACAGCTGCTGTATTGGCTATGGAGAAGAGGCCAAAAGACTTGTCGGAATCAGATATT
ATCGATTTACGTGCACAGTCACCTGCGCTAGAGGCTATGTTGCAAGAGGCGCAAGGAATCGCTAGTGTGACTGGTGCTGT
AGAGGTGGGGTCTGAACATGTATTGATGGCCTTCCTTCTTCATAAGGATTTAATGGTTTGTCGCCTCCTTGAAGTGGCTG
GTTTTCAATATAAAGATGATAGCGATAAACCTCGCATCATAGATTTACGACGTTCTTTGGAGCGTAATGCTGGTCTTAGC
AAGCAAGATTTGAAGGCAATTCACGATCTTCGTAAACCTAAGAAATCAAAAGCATCTGCGAATTTTGCCAATATGATGCA
ACCTCCTCAATCATCTACTGGTGAACTGGCAGATTATACCAAAGACTTAACTGCATTAGCGGAGTCAGGAAATCTTGATC
CCATTATTGGACGCGATGAAGAAATTTCACGCATGATTCAGGTTTTGAGTCGTAAAACGAAGAATAATCCTGTCTTGGTA
GGTGAAGCTGGTGTCGGTAAGACAGCACTTGCTCTTGGTTTAGCGCAACGTATTGCTTCAGGCGAAGTACCATTTGAATT
GGCTGATATGCGTATCTTAGAGCTTGACATGATGAGCGTTGTTGCAGGGACACGTTTCCGTGGTGATTTCGAAGAGCGTA
TGAATCAGATCATTGATGAGATTGAAGCTGATGGGAAAATCATTCTCTTTATTGACGAACTACATACGATTATTGGATCT
GGTTCAGGTATTGATAGTACCTTGGATGCGGCTAATATTTTGAAACCGGCCCTTGCGCGCGGGACACTTCACATGGTTGG
AGCAACCACGCAAGCTGAATACCAAAAGCATATTGAGAAAGATGCAGCTTTATCCCGTCGTTTTGCTAAAATTACAATTG
AAGAACCAAGTGTATCTGAAGCAATCGATATTTTAAACGGTTTGCGTTCGTCTTATGAAGACTATCATCGTGTGACTATT
ACGGACGCGGCAGTTGAGACGGCAGTCAAGGCAGCGCATCGCTATTTGACGAGTAAGAATTTGCCTGATTCGGCAATTGA
CCTTTTAGATGAAGCGAGTGCAACTGTTCAAGTTCGTATCAAAAAAGAGGCCAAACGTGAGATAACGCCTTTGGATGAAG
CACTTATATCTGGGGATATTGGGGCTGCTGTTAAACAGTATAAGGCTAACCAAAAGGCAAAATTTCCTAAACCTGCTTTG
GTAGATGCGGATCAGATTATGCAAACTCTTAGTCGTTTATCAGGTATCCCTGTTGAGAAGATGACGCAGACTGACAGCAA
GCGTTACCTGAATCTTGAATCAGAACTCCACAAACGTGTTATTGGTCAAGATGAGGCGGTTTCGGCTATCAGCCGTGCTA
TTCGTCGTAATCAGTCAGGTATTCGTACTGGAAAACGTCCTATTGGCTCCTTCATGTTCCTTGGACCTACTGGTGTTGGT
AAGACAGAATTGGCCAAGGCTTTGGCGGAAGTTCTCTTTGATGATGAATCAGCTTTGCTTCGCTTTGATATGTCGGAGTA
TATGGAAAAATTTGCGGCTAGTCGCCTTAATGGTGCTCCTCCAGGATATGTCGGATATGATGAGGGTGGAGAGTTGACAG
AGAAAGTTCGAAATAAGCCCTACTCAGTTCTTCTCTTTGACGAGATTGAGAAAGCTCATCCAGATATCTTCAACGTTCTC
TTACAGGTTTTGGATGACGGTGTTTTAACAGATAGCCGTGGTCGTAAGGTTGATTTTTCAAACACTATCATCATTATGAC
CTCAAATTTGGGAGCTACAGCTCTTCGTGATGATAAAACTGTTGGTTTTGGTGCTCAAACTATTTCTCATAATCACCAAG
CCATGCAAGCACGCATTATGGAAGAGCTTAAGAAGTCCTATCGTCCAGAATTTATTAACCGTATTGATGAGAAGGTTGTC
TTCCACAGCTTAGAGGAAGAACAACTACATGACATTGTCAAGATTATGGTTAAACCATTAATTTCAGCTCTAGCCGATAA
AGGTATAAGCTTAAAATTCCAACCAGCTGCTCTTAAGCATTTGGCTAAGGATGGCTATGATATTGAGATGGGAGCTCGTC
CATTACGTCGTACGATTCAAACTCAAGTGGAGGACAAGTTGTCTGAGTTATTACTAGGTGGCCAAGTTGTTAGCGGACAG
ACCCTTAAGATTGGTTGCTCGAAAGATAAATTAACCTTTACAGTAGTGTAA


Secondary structure


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



3D structure


Source ID Structure
  AlphaFold DB Q5M6G1

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
  clpC Streptococcus thermophilus LMD-9

99.387

100

0.994

  clpC Streptococcus mutans UA159

72.426

100

0.727

  clpC Streptococcus pneumoniae Rx1

65.971

100

0.663

  clpC Streptococcus pneumoniae TIGR4

65.971

100

0.663

  clpC Streptococcus pneumoniae D39

65.971

100

0.663

  clpC Lactococcus lactis subsp. lactis strain DGCC12653

50.421

100

0.513

  clpC Bacillus subtilis subsp. subtilis str. 168

46.407

100

0.47

  clpE Streptococcus mutans UA159

47.444

83.134

0.394

  clpE Streptococcus pneumoniae TIGR4

46.486

83.245

0.387

  clpE Streptococcus pneumoniae R6

46.4

83.112

0.386

  clpE Streptococcus pneumoniae D39

46.4

83.112

0.386

  clpE Streptococcus pneumoniae Rx1

46.4

83.112

0.386

  clpA Campylobacter jejuni subsp. jejuni NCTC 11168 = ATCC 700819

42.072

89.845

0.378

  clpC Lactococcus lactis subsp. cremoris KW2

45.779

82.353

0.377


Multiple sequence alignment    



References


[1] Astrid Wahl et al. (2014) Control of natural transformation in salivarius Streptococci through specific degradation of σX by the MecA-ClpCP protease complex. Journal of Bacteriology 196(15):2807-16. [PMID: 24837292]
[2] Céline Boutry et al. (2012) Adaptor protein MecA is a negative regulator of the expression of late competence genes in Streptococcus thermophilus. Journal of Bacteriology 194(7):1777-88. [PMID: 22287513]
[3] Truls Johan Biørnstad et al. (2011) ClpC acts as a negative regulator of competence in Streptococcus thermophilus. Microbiology (Reading, England) 157(Pt 6):1676-1684. [PMID: 21436217]