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Pathway modeling gives us a view of the natural systems and their interactions and helps to generate new hypothesis.
The present study focuses on the analysis of pathways involvedin Breast cancer and Prostate cancer.The hypersensitivity
pathway responsible for Androgen Independent Prostate Cancer showed that the enzyme 5-�±-reductase is the key regulator
of this pathway. Hence, if this enzyme is targeted from the drug development aspect it may help to combat prostate cancer.
Similarly, by reducing the concentration of homocysteine and controlling the low levels of folate in the metabolic pathways
with respect to time course would help to control the breast cancer risk in women. Here, the COPASI model is used to know
the pathway modelling of particular pathway which would help in altering the malfunctioning of the pathway. As the pathway
modelling completely based on the time course and concentration levels, the amount risk factors can be controlled with equal
maintenance of time and concentrations.Tuberculosis, caused by Mycobacterium tuberculosis is one of the main diseases to
mankind. Designing of appropriate antimicrobial agents depend upon the novel drug targets of pathogen. COPASI model
has been used for the simulation and modeling of shikimate pathway. The shikimate pathway starts from condensation of
2-phosphoenolpyruvate and D-erythrose-4- phosphate to chorismate.Chorismate is the only precursor for the amino acid
biosynthesis in this pathogen.The validated kinetic model can be used to determine the contribution of each enzyme to the
final product formation rate, to profile intermediate concentrations, and predict responses to inhibition effects. Using the
model, conditions most appropriate for high-throughput screening can be optimized.