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Abstract
Aim: Measles remains a
global health challenge despite widespread vaccination, causing significant
morbidity and mortality especially among unvaccinated children. This study
identifies and characterizes key genes associated with measles virus
infection through comprehensive bioinformatic analysis.
Methodology: Thirty
measles-associated genes from DisGeNET were analyzed using gene ontology
enrichment, pathway mapping, protein complex analysis, tissue expression
profiling, transcription factor prediction, and metabolite interaction
analysis.
Results: Gene ontology
enrichment highlighted cytokine production regulation (OR=48.98), STAT
phosphorylation (OR=126.32), and immunoglobulin production (OR=181.35).
Pathway analysis implicated the measles infection pathway (OR=91.91) and
inflammatory responses. Protein analysis revealed enrichment in interleukin
complexes. Tissue expression was highest in peritoneal exudate (OR=552.23)
and synovial tissue (OR=134.43).
Interpretation: This integrative
bioinformatic analysis uncovers key molecular processes underlying measles
virus infection, emphasizing cytokine signaling, JAK-STAT phosphorylation,
and inflammatory pathways as central mechanisms. The identified genes
represent potential therapeutic targets for novel treatments against measles
and related infections.
Key
words:
Bioinformatics, Cytokine signalling, Gene ontology, Inflammatory response,
Measles virus
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