Annotation Categories of the Plasmid Cluster







Summary of the plasmid cluster

Basic Information about the Plasmid Cluster

  Cluster Information   Plasmid Cluster ID   C833
  Reference Plasmid   NZ_CP069474.1
  Reference Plasmid Size   30898
  Reference Plasmid GC Content   0.31
  Reference Plasmid Mobility Type   mobilizable





Mutation sites in the plasmid cluster


The table lists mutations identified in the plasmid cluster.
Note: Mutations identified in this plasmid cluster are listed below. Click on a mutation ID to view full details..

mutid gname pos count tissue frequnt biotype consequence impact nucchange aachange
M0184296 JCNCCBJJ_00016 14575 4 Gut 0.44 protein_coding missense_variant MODERATE 23A>G Asn8Ser
M0184297 JCNCCBJJ_00019 16318 3 Gut 0.33 protein_coding synonymous_variant LOW 129G>A Ser43Ser
M0184298 JCNCCBJJ_00019 16321 3 Gut 0.33 protein_coding synonymous_variant LOW 126G>A Gln42Gln
M0184299 JCNCCBJJ_00012 16545 4 Gut 0.44 protein_coding upstream_gene_variant MODIFIER -4960G>A None






Analysis of virulence factors contributing to bacterial pathogenicity


This table presents virulence factors identified within the plasmid cluster.
      Note: Virulence factor analysis was performed using VFDB. Genes in plasmid clusters showing strong homology (identity > 70%, coverage > 70%, E-value < 1e-5) to known virulence factors are listed.

Gene Name vf_gene_id vf_name identity evalue qstart qend query_coverage subject_coverage vf_category gene_description condition







        Analysis of biocide and heavy metal resistance genes to assess antimicrobial risk and environmental impact


This table presents biocides and heavy metals resistance genes identified within the plasmid cluster.
      Note: Analyzing biocide and heavy metal resistance genes based on BacMet to evaluate bacterial resistance risk and the potential impact of environmental heavy metal contamination. Genes in plasmid clusters showing strong homology (identity > 70%, subject coverage > 70%, E-value < 1e-5) to known biocide and heavy metal resistance genes are listed.

Gene Name compound identity evalue qstart qend query_coverage subject_coverage group
JCNCCBJJ_00009 Benzylkonium Chloride (BAC) [class: Quaternary Ammonium Compounds (QACs)], Ethidium Bromide [class: Phenanthridine], Acriflavine [class: Acridine], Chlorhexidine [class: Biguanides], Cetylpyridinium Chloride (CPC) [class: Quaternary Ammonium Compounds (QACs)], Crystal Violet [class: Triarylmethane], Pyronin Y [class: Xanthene], Quinaldine red [class: Quinolines], Rhodamine 6G [class: Xanthene], Safranin O [class: Azin], Cetrimide (CTM) [class: Quaternary Ammonium Compounds (QACs)], Alexidine [class: Biguanides], Amicarbalide [class: Diamidine], Pentamidine [class: Diamidine], Hexamidine [class: Diamidine], Propamidine [class: Diamidine], Diamidinodiphenylamine [class: Diamidine], Dibrompropamidine [class: Diamidine], 1a-62/JC-1-127 [class: Guanylhydrazones], 1i-39/JC-1-134 [class: Guanylhydrazones], Stilbamidine [class: Diamidine], Phenamidine [class: Diamidine], Diminazene [class: Diamidine] 100 3.2e-274 1 514 1.0000 1.0000 experiment
JCNCCBJJ_00009 Benzylkonium Chloride (BAC) [class: Quaternary Ammonium Compounds (QACs)], Ethidium Bromide [class: Phenanthridine], Acriflavine [class: Acridine], Chlorhexidine [class: Biguanides], Cetylpyridinium Chloride (CPC) [class: Quaternary Ammonium Compounds (QACs)], Crystal Violet [class: Triarylmethane], Pyronin Y [class: Xanthene], Quinaldine red [class: Quinolines], Rhodamine 6G [class: Xanthene], Safranin O [class: Azin], Cetrimide (CTM) [class: Quaternary Ammonium Compounds (QACs)], Alexidine [class: Biguanides], Amicarbalide [class: Diamidine], Pentamidine [class: Diamidine], Hexamidine [class: Diamidine], Propamidine [class: Diamidine], Diamidinodiphenylamine [class: Diamidine], Dibrompropamidine [class: Diamidine], 1a-62/JC-1-127 [class: Guanylhydrazones], 1i-39/JC-1-134 [class: Guanylhydrazones], Stilbamidine [class: Diamidine], Phenamidine [class: Diamidine], Diminazene [class: Diamidine] 100 7.4e-272 1 514 1.0000 1.0000 prediction






        Analyzing antimicrobial resistance genes to assess bacterial resistance to antibiotics and other antimicrobial agents


This table presents antimicrobial resistance genes identified within the plasmid cluster.
      Note: Antimicrobial resistance was performed using CARD. Genes in plasmid clusters showing strong homology (identity > 70%, coverage > 70%, E-value < 1e-5) to known antimicrobial resistance genes are listed.

Gene Name aro_accession identity evalue qstart qend query_coverage subject_coverage drug_class amr_gene_family resistance_mechanism
JCNCCBJJ_00001 ARO:3008823 97.9 3.52e-192 1 281 1.0000 1.0000 penicillin beta-lactam BlaZ beta-lactamase antibiotic inactivation
JCNCCBJJ_00004 ARO:3000178 100 5.90999999977171e-315 1 459 1.0000 1.0000 tetracycline antibiotic major facilitator superfamily (MFS) antibiotic efflux pump antibiotic efflux
JCNCCBJJ_00009 ARO:3003046 99.8 0 1 514 1.0000 1.0000 fluoroquinolone antibiotic major facilitator superfamily (MFS) antibiotic efflux pump antibiotic efflux
JCNCCBJJ_00028 ARO:3002623 99.2 2.96e-189 4 256 0.9883 1.0000 aminoglycoside antibiotic ANT(4') antibiotic inactivation






Analysis of pathogenicity genes to explore pathogen-host interactions


This table presents host pathogen-host interactions within the plasmid cluster.
      Note: Analyzing pathogenicity-related genes using PHI-base to understand pathogen virulence mechanisms and their impact on host interactions. Genes in plasmid clusters showing strong homology (identity > 70%, subject coverage > 70%, and E-value < 1e-5) to known pathogenicity-related genes are listed.

Gene Name phi_molconn_id host gene_name identity evalue qstart qend query_coverage subject_coverage host_descripton disease_name function phenotype_of_mutant






        Analyzing carbohydrate-active enzyme genes to uncover mechanisms of nutrient degradation


This table presents carbohydrate-active enzyme genes identified within the plasmid cluster.
      Note: Annotation of carbohydrate-active enzyme genes was performed using CAZy to explore mechanisms of nutrient breakdown and utilization. Genes in plasmid clusters showing strong homology (identity > 70%, subject coverage > 70%, and E-value < 1e−5) to known CAZyme genes are listed.

Gene Name cazy_id identity evalue qstart qend query_coverage subject_coverage





        Analyzing transport proteins to understand bacterial strategies for substrate uptake and detoxification


This table presents transport proteins within the plasmid cluster.
      Note: Investigation of transport proteins based on TCDB to uncover bacterial mechanisms of substrate transport and environmental detoxification. Genes in plasmid clusters showing strong homology (identity > 70%, subject coverage > 70%, and E-value < 1e−5) to known transport protein entries are listed.

Gene Name tcid identity evalue qstart qend query_coverage subject_coverage class_field class_term subclass subclass_term family family_term
JCNCCBJJ_00004 2.A.1.3.6 100 7.8e-247 1 459 1.0000 1.0000 2 Electrochemical Potential-driven Transporters 2.A Porters (uniporters, symporters, antiporters) 2.A.1 The Major Facilitator Superfamily (MFS)
JCNCCBJJ_00009 2.A.1.3.4 100 1.2e-272 1 514 1.0000 1.0000 2 Electrochemical Potential-driven Transporters 2.A Porters (uniporters, symporters, antiporters) 2.A.1 The Major Facilitator Superfamily (MFS)