Abstract

The emergence of HIV-TB co-infection and multi-drug resistant strains of Mycobacterium tuberculosis (Mtb) drive the need for new therapeutics against the infectious disease tuberculosis. Among the reported putative TB targets in the literature, the identification and characterization of the most probable therapeutic targets that influence the complex infectious disease, primarily through interactions with other influenced proteins, remains a statistical and computational challenge in proteomic epidemiology. Protein interaction network analysis provides an effective way to understand the relationships between protein products of genes by interconnecting networks of essential genes and its protein-protein interactions for 5 broad functional categories in Mtb. We also investigated the substructure of the protein interaction network and focused on highly connected nodes known as cliques by giving weight to the edges using data mining algorithms. Cliques containing Sulphate assimilation and Shikimate pathway enzymes appeared continuously inspite of increasing constraints applied by the K-Core algorithm during Network Decomposition. The potential target narrowed down through Systems approaches was Prephanate Dehydratase present in the Shikimate pathway this gives an insight to develop novel potential inhibitors through Structure Based Drug Design with natural compounds.

Highlights

  • During recent years, simulations of biological systems have been spurred by the massive acquisition and availability of data in molecular and cell biology

  • With the first cases of Total Drug Resistant strains reported in India during January 2012 and the mortality rate of Multi-Drug Resistance (MDR), Extremely Drug Resistance (XDR) and Total Drug Resistance (TDR)-TB is 30%, 60% and 100% respectively, there is an urgent need to identify novel targets and to develop new drugs [1]

  • The proposed approach uses the creation of molecular interaction map and finding the best cliques by using kcore application

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Summary

Background

Simulations of biological systems have been spurred by the massive acquisition and availability of data in molecular and cell biology. The gap between in vivo and in-silico biology has been remarkably reduced, there are still many limitations hindering the adoption of computational approaches in everyday Biomolecular research. Filling in this gap with Systems level approaches will help for a better understanding of mechanisms and operation of cellular processes in the Tuberculosis (TB) bacterium. We create a network of Molecular Interaction Map (MIP) from a list of 141 possible targets reported in the comprehensive in-silico target identification pipeline, TargetTB [2, 3]. Justify the important nodes/hubs playing crucial role in the functional pathways of the TB bacterium

Discussion
Conclusion
Findings
Lipid Metabolism
Menaquinone Biosynthesis
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