I’m Chris Woody Woodruff 

Genetic Algorithms (GAs) are a powerful optimization strategy inspired by the principles of natural evolution. But they are far from the only technique in a developer’s toolbox. In this post, we will compare Genetic Algorithms with other widely-used optimization methods such as Gradient Descen...

Tuning hyperparameters for machine learning models like neural networks can be tedious and time-consuming. Traditional grid search or random search lacks efficiency in high-dimensional or non-linear search spaces. Genetic Algorithms (GAs) offer a compelling alternative by navigating the hyperparamet...

Even well-written Genetic Algorithms can fail. You might see little improvement over generations, results clustering around poor solutions, or a complete stall in progress. These symptoms often point to premature convergence, loss of genetic diversity, or flaws in selection and fitness evaluation. D...

Genetic Algorithms (GAs) are flexible and powerful tools for solving optimization problems. However, their effectiveness relies heavily on the correct tuning of parameters. Population size, mutation rate, crossover rate, selection pressure, and generation limits all affect convergence, solution qual...

Genetic Algorithms are inherently stochastic. Mutation introduces randomness. Crossover combines genes in unpredictable ways. Selection strategies often rely on probabilities. While this is essential to their power, it presents a challenge when it comes to unit testing. How can you reliably test beh...