Stanford CS229 - Machine Learning I Spring 2022

Explore machine learning fundamentals through Stanford's comprehensive course covering supervised learning techniques including generative and discriminative learning, parametric and non-parametric approaches, neural networks, and support vector machines. Master unsupervised learning methods such as clustering, dimensionality reduction, and kernel methods while developing understanding of learning theory including bias-variance tradeoffs and practical implementation advice. Dive into reinforcement learning and adaptive control systems, then examine real-world applications in robotic control, data mining, autonomous navigation, bioinformatics, speech recognition, and text processing. Progress through 20 detailed lectures starting with machine learning introduction and supervised learning setup, advancing through weighted least squares, logistic regression, and Newton's method. Study exponential families and generalized linear models before exploring Gaussian discriminant analysis and Naive Bayes with Laplace smoothing. Investigate kernel methods and neural networks including backpropagation, then analyze bias-variance relationships and regularization techniques. Learn feature and model selection strategies alongside practical machine learning advice, followed by clustering methods including K-means and Gaussian mixture models with expectation maximization. Examine dimensionality reduction through factor analysis, principal component analysis, and independent component analysis, plus modern self-supervised learning approaches. Conclude with reinforcement learning fundamentals covering value iteration and policy iteration, explore the societal impact of machine learning through expert guest lectures, and study model-based reinforcement learning with value function approximation.