Master Machine Learning
A production-grade curriculum for engineers who want depth, not shortcuts.
Most ML courses teach you to call model.fit().
This curriculum teaches you what happens inside - and how to build systems that work in production.
The Curriculum
Three levels. Sequential. Each builds on the last.
ML Foundations - Beginner
Who it's for: Engineers and data scientists building rigorous ML foundations from first principles.
| Module | Topics |
|---|---|
| 01 - ML Foundations | Bias-variance tradeoff, evaluation, generalization, probabilistic view, statistical learning theory |
| 02 - Linear Models | Linear regression, gradient descent, logistic regression, regularization, MLE, GLMs |
| 03 - Tree Models & Ensembles | Decision trees, random forests, gradient boosting, XGBoost, feature importance |
| 04 - Neural Networks | Perceptron, backpropagation, activations, weight initialization, batch norm, dropout, optimizers |
| 05 - Computer Vision | CNNs, pooling, architectures (ResNet, EfficientNet), transfer learning, detection, segmentation |
Applied ML - Intermediate
Who it's for: ML engineers who know the basics and want to build real, deployable systems.
| Module | Topics |
|---|---|
| 06 - Sequences & Time Series | RNNs, LSTMs, GRUs, seq2seq, attention, time series forecasting |
| 07 - Unsupervised Learning | K-Means, hierarchical clustering, DBSCAN, PCA, t-SNE, autoencoders |
| 08 - Recommender Systems | Collaborative filtering, matrix factorization, content-based, neural recsys |
| 09 - ML Engineering with Python | NumPy, Pandas, scikit-learn pipelines, PyTorch, Hugging Face |
| 10 - ML System Design | Problem framing, data pipelines, model serving, monitoring, case studies |
Advanced ML - Advanced
Who it's for: Senior ML engineers tackling cutting-edge research and production-scale challenges.
| Module | Topics |
|---|---|
| 11 - Reinforcement Learning | MDPs, dynamic programming, Q-learning, DQN, policy gradients, RLHF |
| 12 - Explainability & Interpretability | SHAP, LIME, attention maps, mechanistic interpretability, audit frameworks |
| 13 - Graph Neural Networks | GCN, GAT, GraphSAGE, message passing, graph classification, link prediction |
| 14 - Bayesian Machine Learning | Bayesian inference, Gaussian processes, variational inference, uncertainty quantification |
| 15 - Diffusion Models | Score matching, DDPM, DDIM, latent diffusion, classifier-free guidance |
What You Will Be Able to Do
After completing this curriculum:
- Explain any ML algorithm from first principles - not just name-drop it in interviews
- Debug model failures by understanding what's actually happening inside the training loop
- Design end-to-end ML systems - data ingestion, training, serving, and monitoring
- Choose the right model for a problem based on data characteristics, not habit
- Read ML research papers and implement the key ideas from scratch
- Quantify and manage uncertainty in model predictions for production reliability
The Engineering Standard
Every lesson in this curriculum:
- Opens with a real interview scenario or production failure you will encounter
- Derives the math from first principles - not handed to you as magic formulas
- Connects theory to code with working, idiomatic Python implementations
- Closes with senior-level interview Q&As that test conceptual depth
This is not a tutorial platform. It is an engineering curriculum.
Career Outcomes
Prepared for roles including:
- Machine Learning Engineer
- AI Engineer
- Data Scientist (Research & Applied)
- MLOps Engineer
- Research Engineer
- AI Systems Architect
Certification (Coming Soon)
EngineersOfAI - Machine Learning Engineering Certification
Practical. Deep. Interview-ready. For engineers who want to demonstrate real ML depth - not just familiarity with sklearn.
