
Explain local and global minima and maxima in a function, noting multiple local minima exist but only one global minimum, and discuss locating these points via optimization.
Identify the objective function, also called the fitness function, for optimizing a two-variable function with X1 and x2, and distinguish local from global solutions in Matlab.
Explore vectorized function calls in MATLAB to accelerate objective function evaluation by processing multiple input sets simultaneously, using a function file and matrix inputs.
Pass extra parameters to MATLAB objective functions by treating a, b, and c as fixed alongside the independent variables X1 and X2 in a four-argument function.
Explore how a population of individuals, where each can repeat, represented as a 100-by-3 matrix, evolves through iterative generations in a genetic algorithm, producing a new population at each iteration.
Define fitness value as the objective function score; the best fitness is the smallest in the population, and the algorithm selects better-fit parents to produce children.
Discover how genetic algorithms optimize objectives by evolving a population through élite selection, crossover, and mutation until convergence at a single point, as shown by the flowchart and example.
Minimize the objective function with linear inequality constraints using a MATLAB genetic algorithm solver, where A and b define the constraints and four input arguments are provided.
Explore optimization with linear inequality and equality constraints for a two-variable objective X1 and X2, and find the local minimum using MATLAB's ga algorithm with A, b, Aeq, beq.
Use MATLAB ga to minimize an objective with bound constraints, setting X1 in [1,6] and X2 in [-3,8], by defining lb and ub and running the optimization.
Minimize the objective under nonlinear inequality and equality constraints using MATLAB's ga function with nonlcon, by creating scripts for the objective and nonlinear constraints to locate the minimum local locations.
Learn to minimize a nonlinear function with integer constraints in MATLAB using ga and the IntCon argument, restricting variables like X1, X2, or X6 and running a sample script.
Identify the global minimum of an objective function using ga by increasing initial population diversity and range with optimoptions in MATLAB, illustrated by a 2D plot of a single-variable function.
Vectorize the objective function to speed up genetic algorithms in Matlab by evaluating all individuals at once. Enable the UseVectorized option and run the vectorized solver.
Use Matlab's global optimization toolbox to maximize a function by inverting it. Minimize the negated objective g(x); the minimum of g(x) corresponds to the maximum of f(x).
There has been a rapidly growing interest in a field called Genetic Algorithms during the last thirty years. Have you ever wondered how specific theories greatly inspire a particular invention?. The same goes with Genetic Algorithms. All of us would have heard of the famous view of Charles Darwin, “Survival of the fittest”, which extends to Evolution by Natural Selection. Inspired by Darwin’s theory, the Genetic Algorithm is a part of Evolutionary Algorithms, specifically to generate high-quality solutions to optimization and search problems by relying on biologically inspired operators such as mutation, crossover, and selection. The Genetic Algorithm can be easily applied to different applications, including Machine Learning, Data Science, Neural Networks, and Deep Learning.
This course will teach you to implement genetic algorithm-based optimization in the MATLAB environment, focusing on using the Global Optimization Toolbox. Various kinds of optimization problems are solved in this course. At the end of this course, you will implement and utilize genetic algorithms to solve your optimization problems. The complete MATLAB programs included in the class are also available for download. This course is designed most straightforwardly to utilize your time wisely. Take advantage of learning and understanding the fast-growing field of evolutionary computation.
Happy learning.