VÍRUS DA VARÍOLA DO MACACO: MODELAGEM E ANÁLISE DE PROTEÍNAS POR BIOINFORMÁTICA
MONKEYPOX VIRUS: MODELING AND ANALYSIS OF PROTEINS BY BIOINFORMATICS
DOI:
https://doi.org/10.24933/e-usf.v6i2.303Keywords:
Aminoácidos, Conservação estrutural, Análises in silico, modelagemAbstract
Monkeypox virus, the causative agent of monkeypox, is an Orthopoxvirus of zoonotic infection apparently similar to Smallpox virus, which causes human smallpox. The initiative for analysis using bioinformatics was due to the appeal to speed, practicality and technology that it confers, in addition to being in great demand in current scientific studies. This study aimed to identify, model and analyze protein structures of clinical importance of the virus, through sites and programs of bioinformatics and protein homology, in order to bring knowledge and material for future experimental studies. Six homologous proteins were modeled and studied, one of them from the Smallpox virus, following some selection criteria. All showed great accuracy in relation to the proteins described and with regions of target sites in full conservation status, with the exception of one, where it was not possible to define this. It was concluded that these models are valid and consistent with reality, serving as a basis for studies with the aim of developing therapies against monkeypox, in addition to the fact that there is a relationship between the symptomatology of the two smallpox and the conservation of amino acids in the proteins.
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