Math For AI
Expert path for machine learning

Math For AI

A clean, ordered curriculum for the mathematics behind modern AI, built for students who want strong intuition and practical ML context.

Step 01Linear Algebra
Step 02Calculus
Step 03Optimization
Step 04Probability
Step 05Statistics
Step 06Information Theory
Step 07Geometry
Step 08Probabilistic Linear Algebra
Step 09Factorization
Foundation

One consistent path from math to ML intuition.

Each module is structured around core concepts, formulas, applied ML context, interview-style questions, exercises, and resources.

9 focused modules
AI first-principles explanations
ML practical application context
Modules

Study in sequence.

The order moves from representation and change to uncertainty, information, geometry, and dimensionality reduction.

Step 01

Linear Algebra

The backbone of machine learning representations.

  • Scalars, vectors, matrices, tensors
  • Vector and matrix operations
  • Dot product and geometric interpretation
  • Matrix multiplication
  • Identity, transpose, inverse
  • Rank of a matrix
  • Systems of linear equations
  • Linear transformations
  • Column space and null space (intuition)
  • Eigenvalues and eigenvectors (intuition + usage)
  • Orthogonality
  • Norms and distances (L1, L2)
Step 02

Calculus

The language of change, gradients, and learning.

  • Functions and graphs
  • Limits (intuition only)
  • Derivatives and gradients
  • Partial derivatives
  • Chain rule (very important)
  • Gradient as direction of steepest descent
  • Local vs global minima
  • Convex vs non-convex functions
Step 03

Optimization

How models improve through loss and updates.

  • Gradient descent
  • Learning rate intuition
  • Cost and loss functions
  • Saddle points
  • Vanishing and exploding gradients (intuition)
Step 04

Probability Theory

Reasoning clearly under uncertainty.

  • Random variables
  • Discrete vs continuous variables
  • Probability distributions
  • PMF, PDF, CDF
  • Expectation and variance
  • Common distributions: Bernoulli, Binomial, Normal, Uniform, Poisson
  • Independence and conditional probability
  • Bayes' theorem
  • Likelihood vs probability
Step 05

Statistics

From samples and variation to decisions.

  • Population vs sample
  • Measures of central tendency
  • Measures of dispersion
  • Covariance
  • Correlation
  • Bias and variance
  • Sampling techniques
  • Central Limit Theorem (intuition)
  • Law of Large Numbers
  • Outliers and robustness
Step 06

Information Theory

Entropy, surprise, and classification loss.

  • Entropy
  • Cross-entropy
  • KL divergence
  • Information gain
  • Why cross-entropy is used in classification
Step 07

Geometry and Distances

Similarity, space, and high-dimensional intuition.

  • Euclidean distance
  • Manhattan distance
  • Cosine similarity
  • Angle between vectors
  • High-dimensional intuition (curse of dimensionality)
Step 08

Probability + Linear Algebra

The bridge to multivariate modeling.

  • Multivariate distributions
  • Gaussian distribution in higher dimensions
  • Covariance matrix interpretation
  • Mahalanobis distance
Step 09

Matrix Factorization

High-value decompositions for ML systems.

  • Eigen decomposition
  • Singular Value Decomposition (SVD)
  • PCA math intuition
  • Dimensionality reduction rationale