Book Image

A Handbook of Mathematical Models with Python

By : Dr. Ranja Sarkar
Book Image

A Handbook of Mathematical Models with Python

By: Dr. Ranja Sarkar

Overview of this book

Mathematical modeling is the art of transforming a business problem into a well-defined mathematical formulation. Its emphasis on interpretability is particularly crucial when deploying a model to support high-stake decisions in sensitive sectors like pharmaceuticals and healthcare. Through this book, you’ll gain a firm grasp of the foundational mathematics underpinning various machine learning algorithms. Equipped with this knowledge, you can modify algorithms to suit your business problem. Starting with the basic theory and concepts of mathematical modeling, you’ll explore an array of mathematical tools that will empower you to extract insights and understand the data better, which in turn will aid in making optimal, data-driven decisions. The book allows you to explore mathematical optimization and its wide range of applications, and concludes by highlighting the synergetic value derived from blending mathematical models with machine learning. Ultimately, you’ll be able to apply everything you’ve learned to choose the most fitting methodologies for the business problems you encounter.
Table of Contents (16 chapters)
1
Part 1:Mathematical Modeling
4
Part 2:Mathematical Tools
11
Part 3:Mathematical Optimization

Summary

In this chapter, we learned about a theory that is helpful in simplifying and quantifying complex connected systems called networks. Graph theory is the study of relationships (represented as edges in graphs) between dynamic entities and helps better interpret network models. We further elaborated (with Python code) on how an optimization problem can be mathematically formulated and solved using this concept. A lot of problems can be approached using a graph framework that involves the components of mathematical optimization, as discussed in a section of this chapter.

This chapter also introduced GNNs, which operate on the structure and property of a graph. A single property is predicted for an entire graph for a graph-level task, a property of each node is predicted for a node-level task, and the property of each existing edge in a graph is predicted abstractly an edge-level task. GNNs are applied when graphs are complex and deep.

In the next chapter, we will study the...