The mathematical foundations every serious AI/ML engineer needs - linear algebra, calculus, probability, statistics, information theory, and beyond.
From linear algebra fundamentals to advanced learning theory - every module is ML-engineering focused.
Vectors, matrices, eigenvalues, SVD, and tensors - the computational substrate of every ML algorithm.
What you'll master
10 lessons
Derivatives, gradients, backpropagation, and the optimization algorithms that train every neural network.
What you'll master
8 lessons
Probability distributions, Bayes theorem, and sampling - the language of uncertainty in ML.
What you'll master
8 lessons
MLE, hypothesis testing, bootstrap, regression, and causal inference for data-driven decisions.
What you'll master
8 lessons
Entropy, KL divergence, cross-entropy loss, and mutual information - the math behind every loss function.
What you'll master
7 lessons
Priors, posteriors, MCMC, variational inference, and Gaussian processes for uncertainty-aware ML.
What you'll master
8 lessons
PAC learning, VC dimension, Rademacher complexity, and why deep networks generalize.
What you'll master
7 lessons
Floating-point arithmetic, numerical stability, sparse matrices - why math on computers differs from math on paper.
What you'll master
7 lessons
Graph representations, spectral theory, and the mathematical foundations of graph neural networks.
What you'll master
6 lessons
Stationarity, Fourier analysis, ARIMA, Kalman filters, and wavelets for sequential data.
What you'll master
7 lessons
From linear algebra and calculus to Bayesian statistics and learning theory - no gaps, no shortcuts.
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