Understanding and Applying Numerical Optimization Techniques
Course info



Course info



Description
Many optimization problems are conceptually similar to software design patterns - they are generally usable techniques that help with commonly recurring problems. In this course, Understanding and Applying Numerical Optimization Techniques, you'll first learn about framing the optimization problem correctly. Correctly framing the problem is the key to finding the right solution, and is also a powerful general tool in business, data analysis, and modeling. Next, you'll explore linear programming. Linear programming is a specific type of optimization used when the problem can be framed purely in terms of linear (straight line) relationships. Finally, you'll wrap up this course learning about integer programming. Integer programming is similar to linear programming, but it involves adding conditions that our variables be integers. This occurs very often in the real world, but the math of solving these problems is quite a bit more involved. By the end of this course, you will have a good understanding of how numerical optimization techniques can be used in data modeling, and how those models can be implemented in Excel, Python, and R.
Section Introduction Transcripts
Course Overview
Hi everyone. My name is Vitthal Srinivasan. Welcome to my course, Understanding and Applying Numerical Optimization Techniques. I'm a co-founder at a startup named LoonyCorn. Prior to this, I worked at Google and studied at Stanford. What do we really want? What is holding us back? What do we really control? These are pretty deep philosophical questions. These are also questions that numerical optimization is focused on. Optimization is all about making smart trade-offs when presented with complicated choices. Some of the major topics that we will cover include the formulation of objectives, trade-offs, and constraints, linear optimization problems, the economics behind them, and solving them using the simplex algorithm, integer optimization problems, which are incredibly powerful for modeling business decisions, portfolio optimization using both linear and quadratic risk formulations, and implementing linear and integer programming using Excel, R, and Python. By the end of this course, you'll have a good understanding of how numerical optimization techniques can be used in data modeling, and how those models can be implemented in Excel, Python, and R. I hope you'll join me on this journey to make smart, data-driven trade-offs with the course, Understanding and Applying Numerical Optimization Techniques, at Pluralsight.