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Reverse vaccinology and subtractive genomics reveal new therapeutic targets againstMycoplasma pneumoniae: a causative agent of pneumonia
Author(s) -
Thaís Cristina Vilela Rodrigues,
Arun Kumar Jaiswal,
Alissa De Sarom,
Letícia de Castro Oliveira,
Carlo José Freire Oliveira,
Preetam Ghosh,
Sandeep Tiwari,
Fábio Malcher Miranda,
Leandro De Jesus Benevides,
Vasco Azevedo,
Siomar de Castro Soares
Publication year - 2019
Publication title -
royal society open science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.84
H-Index - 51
ISSN - 2054-5703
DOI - 10.1098/rsos.190907
Subject(s) - mycoplasma pneumoniae , reverse vaccinology , biology , pneumonia , antibiotics , drug development , drug resistance , disease , genomics , drug , computational biology , genome , virology , microbiology and biotechnology , gene , genetics , medicine , pharmacology , pathology
Pneumonia is an infectious disease caused by bacteria, viruses or fungi that results in millions of deaths globally. Despite the existence of prophylactic methods against some of the major pathogens of the disease, there is no efficient prophylaxis against atypical agents such as Mycoplasma pneumoniae , a bacterium associated with cases of community-acquired pneumonia. Because of the morphological peculiarity of M. pneumoniae , which leads to an increased resistance to antibiotics, studies that prospectively investigate the development of vaccines and drug targets appear to be one of the best ways forward. Hence, in this paper, bioinformatics tools were used for vaccine and pharmacological prediction. We conducted comparative genomic analysis on the genomes of 88 M. pneumoniae strains, as opposed to a reverse vaccinology analysis, in relation to the capacity of M. pneumoniae proteins to bind to the major histocompatibility complex, revealing seven targets with immunogenic potential. Predictive cytoplasmic proteins were tested as potential drug targets by studying their structures in relation to other proteins, metabolic pathways and molecular anchorage, which identified five possible drug targets. These findings are a valuable addition to the development of vaccines and the selection of new in vivo drug targets that may contribute to further elucidating the molecular basis of M. pneumoniae –host interactions.

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