Network Modelling on Tropical Diseases vs. Climate Change

Abstract

This chapter has proposed a systematic method to design mathematical models. These models have been associated with counting of white blood cells, counting of red blood cells, population of mosquitoes, and counting of foreign bodies like virus, bacteria, and parasite in a human body. Interpretations for critical points or equilibrium points have been given for network systems of differential equations associated with models. A practical method of applying these interpretations in administrating medicines to get control over diseases has been given. Order of priority in three types of critical points, namely, stable critical points, unstable critical points, and asymptotically stable critical points, has been given. Conversions of differential equations of models into integral equations and applying Picard's iteration method to solve integral equations have been explained. A step-by-step approach has been used in designing models, solving models, and interpreting solutions of models for tropical diseases.

Generalized Programming Idea for Making the Thermoelectric Device Using MATLAB Software for Cu2Bi2Te3 and Cu2Sb2Te3

“…MATLAB provides a potent tool for modeling and analyzing sustainable energy systems, including thermoelectric energy conversion. Its flexibility and versatility, along with its builtin tools and features for numerical analysis and simulation, make it a useful platform for academics and engineers working in the field of sustainable energy [2,5,[10][11][12]. For investigating the behavior of thermoelectric materials and devices, MATLAB is an effective tool because to its strengths in numerical methods, data processing, and visualization [6][7][8][9].…”