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AI & Machine Learning

A comprehensive, 3-pillar curriculum that builds durable understanding of artificial intelligence and machine learning — from the mathematical foundations and classical algorithms, through modern deep learning architectures, to the societal implications of deploying AI in the real world. Emphasizes timeless principles over transient tools so knowledge remains valuable as the field evolves.

3 pillars30 courses670 concepts~1000h estimated
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What you'll learn

Foundations of Intelligent Systems

~350h

The mathematical and algorithmic bedrock of AI and machine learning. Covers the math you need (linear algebra, calculus, probability, statistics), classical ML algorithms, optimization, and probabilistic reasoning. These principles are timeless — they haven't changed in decades and won't change in the next decade.

  • Mathematical Foundations for Machine Learning(22 concepts)
    • Vectors and Scalars
    • Matrix Operations
    • Eigenvalues and Eigenvectors
    • Derivatives and Rates of Change
    • Inner Products and Their Properties
    • Dot Product and Projections
    • Linear Transformations
    • Eigendecomposition
    • Partial Derivatives and Gradients
    • Orthogonality and Orthogonal Projections
    • Norms and Distance Measures
    • Determinants and Invertibility
    • Singular Value Decomposition (SVD)
    • The Chain Rule
    • The Gram-Schmidt Process
    • Linear Independence and Basis
    • Systems of Linear Equations
    • Positive Definite and Semi-Definite Matrices
    • Taylor Series Approximation
    • From Inner Products to the Kernel Trick
    • Vector Spaces and Subspaces
    • Jacobian and Hessian Matrices
  • What Is Artificial Intelligence(22 concepts)
    • Early Automata and Mechanical Thought
    • Defining Intelligence
    • Narrow AI in Practice
    • Deep Blue and Chess
    • The Turing Test
    • Turing's Foundational Contributions
    • Symbolic AI (GOFAI)
    • Artificial General Intelligence (AGI)
    • Watson and Jeopardy!
    • The Chinese Room Argument
    • The Dartmouth Conference and the Birth of AI
    • Statistical and Connectionist AI
    • Superintelligence and Existential Risk
    • AlphaGo and the Game of Go
    • Consciousness and Machines
    • AI Winters and Hype Cycles
    • Hybrid and Neurosymbolic Approaches
    • Measuring Progress Toward AGI
    • GPT and the Large Language Model Revolution
    • Ethics and Responsibility in AI
    • The Modern AI Resurgence
    • AlphaFold and Scientific Discovery
  • Model Evaluation and Selection(22 concepts)
    • The Confusion Matrix
    • MSE, RMSE, and MAE
    • K-Fold Cross-Validation
    • Parameters vs. Hyperparameters
    • Statistical Significance of Model Differences
    • Accuracy and Its Limitations
    • R-Squared and Adjusted R-Squared
    • Stratified and Grouped Cross-Validation
    • Grid Search
    • Probability Calibration
    • Precision, Recall, and F1 Score
    • MAPE and Relative Error Metrics
    • Time Series Cross-Validation
    • Random Search
    • Learning Curves as Diagnostic Tools
    • ROC Curve and AUC
    • Residual Analysis
    • Nested Cross-Validation
    • Bayesian Optimization
    • Systematic Model Selection Workflow
    • Precision-Recall Curve and Average Precision
    • Early Stopping and Successive Halving
  • How Machines Learn(21 concepts)
    • Supervised Learning
    • Hypothesis Space
    • Loss Functions
    • Bias-Variance Decomposition
    • Regularization Intuition
    • Unsupervised Learning
    • Inductive Bias
    • Empirical Risk Minimization
    • Overfitting
    • L1 and L2 Regularization
    • Reinforcement Learning
    • Model Complexity
    • Structural Risk Minimization
    • Underfitting
    • Early Stopping and Dropout
    • Self-Supervised Learning
    • Representation and Feature Spaces
    • Surrogate Loss Functions
    • Learning Curves
    • The No Free Lunch Theorem
    • Double Descent and Modern Interpolation
  • Supervised Learning(22 concepts)
    • Linear Regression
    • Decision Trees
    • K-Nearest Neighbors (k-NN)
    • Maximum Margin Classifier
    • Why Ensembles Work
    • Polynomial and Basis Function Expansion
    • Tree Pruning and Complexity Control
    • The Curse of Dimensionality
    • Support Vectors and Soft Margin
    • Bagging and Pasting
    • Logistic Regression
    • Random Forests
    • Naive Bayes Classifier
    • Kernel SVM
    • Boosting Principles: AdaBoost and Beyond
    • Regularized Linear Models: Ridge, Lasso, and Elastic Net
    • Gradient Boosting
    • Choosing k and Distance Metrics
    • SVM for Regression (SVR)
    • Stacking (Stacked Generalization)
    • Multiclass Extensions
    • Feature Importance in Tree-Based Models
  • Probabilistic Graphical Models(20 concepts)
    • Directed Graphical Models
    • Undirected Graphical Models (MRFs)
    • Variable Elimination
    • Monte Carlo Sampling Methods
    • Hidden Markov Models (HMMs)
    • Conditional Independence and D-Separation
    • Directed vs. Undirected Models
    • Belief Propagation (Sum-Product Algorithm)
    • Markov Chain Monte Carlo (MCMC)
    • Forward-Backward and Viterbi Algorithms
    • Parameter Learning in Bayesian Networks
    • Factor Graphs
    • The Junction Tree Algorithm
    • Variational Inference
    • Conditional Random Fields (CRFs)
    • Structure Learning
    • Energy-Based Models
    • Computational Complexity of Inference
    • Loopy Belief Propagation
    • Causal Inference with Graphical Models
  • Unsupervised Learning(20 concepts)
    • The K-Means Algorithm
    • Agglomerative Hierarchical Clustering
    • Gaussian Mixture Models (GMMs)
    • Principal Component Analysis (PCA)
    • Anomaly Detection Approaches
    • Initialization Strategies: K-Means++
    • Linkage Criteria and Their Effects
    • The Expectation-Maximization (EM) Algorithm
    • Explained Variance and Choosing Components
    • Isolation Forest
    • Choosing the Number of Clusters
    • DBSCAN: Density-Based Clustering
    • GMM Model Selection: BIC and AIC
    • t-SNE: t-Distributed Stochastic Neighbor Embedding
    • Association Rule Mining
    • K-Medoids and K-Means Variants
    • HDBSCAN: Hierarchical Density-Based Clustering
    • Covariance Types and Their Impact
    • UMAP: Uniform Manifold Approximation and Projection
    • Evaluating Unsupervised Learning
  • Probability and Statistics for Machine Learning(23 concepts)
    • Probability Axioms and Sample Spaces
    • Random Variables and Their Types
    • Maximum Likelihood Estimation (MLE)
    • Null and Alternative Hypotheses
    • Entropy
    • Conditional Probability
    • Expectation & Variance
    • Maximum A Posteriori Estimation (MAP)
    • P-Values and Statistical Significance
    • Cross-Entropy
    • Law of Total Probability
    • Bernoulli & Binomial Distributions
    • Bias and Variance of Estimators
    • Confidence Intervals
    • KL Divergence
    • Independence and Conditional Independence
    • The Gaussian (Normal) Distribution
    • Consistency and Efficiency
    • Type I and Type II Errors
    • Mutual Information
    • Bayes' Theorem
    • Other Key Distributions: Poisson, Exponential, and Categorical
    • Multiple Testing and Correction Methods
  • Data Thinking and Preparation(20 concepts)
    • Structured vs. Unstructured Data
    • Data Collection Methods
    • Missing Data Mechanisms
    • Exploratory Data Analysis (EDA)
    • Train, Validation, and Test Splits
    • Numerical and Categorical Features
    • Sampling Bias
    • Imputation Strategies
    • Normalization and Standardization
    • Stratified and Temporal Splitting
    • Ordinal Data
    • Label Quality and Annotation
    • Outlier Detection and Treatment
    • Feature Engineering Basics
    • Data Leakage
    • Time Series Data
    • Ethical Data Practices
    • Deduplication and Data Consistency
    • Encoding Categorical Features
    • Leakage-Prevention Pipelines
  • Optimization and Search(21 concepts)
    • Gradient Descent Fundamentals
    • Convex Functions
    • Constrained Optimization Formulations
    • Breadth-First and Depth-First Search
    • Simulated Annealing
    • Batch, Mini-Batch, and Stochastic Gradient Descent
    • Non-Convex Optimization in Deep Learning
    • Lagrange Multipliers
    • A* Search
    • Genetic Algorithms
    • The Learning Rate
    • Saddle Points and Plateaus
    • KKT Conditions
    • Heuristic Design and Admissibility
    • Particle Swarm Optimization
    • Momentum and Nesterov Acceleration
    • Convergence Conditions and Guarantees
    • Primal-Dual Formulations
    • Iterative Deepening and Bidirectional Search
    • When to Use Metaheuristics
    • Adaptive Learning Rate Methods: Adam, RMSProp, AdaGrad

Deep Learning & Modern Architectures

~350h

Neural networks from first principles through modern architectures — CNNs, transformers, generative models, reinforcement learning, and graph neural networks. Taught as mathematics and architecture rather than framework tutorials, so the knowledge survives tool churn.

  • Neural Networks from Scratch(25 concepts)
    • Biological Neurons and Artificial Inspiration
    • The Role of Nonlinearity
    • Forward Propagation Mechanics
    • Chain Rule for Composite Functions
    • Universal Approximation Theorem
    • The Perceptron Model
    • Sigmoid Activation Function
    • Mean Squared Error Loss
    • Backpropagation Derivation
    • Depth vs Width Tradeoffs
    • Perceptron Learning Rule
    • Tanh Activation Function
    • Cross-Entropy Loss
    • Computational Graphs
    • Why Initialization Matters
    • Limitations and the XOR Problem
    • ReLU and Its Variants
    • Loss Surfaces and Optimization Landscape
    • Gradient Flow and Debugging
    • Xavier (Glorot) Initialization
    • From Single Neurons to Multi-Layer Networks
    • Softmax Activation Function
    • Choosing and Combining Loss Functions
    • Automatic Differentiation in Practice
    • He (Kaiming) Initialization
  • Reinforcement Learning(25 concepts)
    • Agent-Environment Interface
    • Dynamic Programming for MDPs
    • TD Prediction (TD(0))
    • Policy Gradient Theorem
    • Deep Q-Networks (DQN)
    • Markov Decision Processes
    • Value Iteration
    • SARSA: On-Policy TD Control
    • REINFORCE Algorithm
    • Double DQN and Dueling DQN
    • Value Functions
    • Monte Carlo Prediction
    • Q-Learning: Off-Policy TD Control
    • Variance Reduction with Baselines
    • Proximal Policy Optimization (PPO)
    • Bellman Equations
    • Exploration vs Exploitation
    • TD(lambda) and Eligibility Traces
    • Actor-Critic Architecture
    • RL in Continuous Action Spaces
    • Policies and Optimality
    • Monte Carlo Control
    • Reward Shaping
    • Generalized Advantage Estimation (GAE)
    • Challenges and Frontiers of Deep RL
  • Graph and Geometric Machine Learning(23 concepts)
    • Graph Fundamentals for Machine Learning
    • Message Passing Framework
    • Graph Convolutional Networks (GCN)
    • Molecular Graphs and Drug Discovery
    • Equivariance and Invariance
    • Graph Representations for Neural Networks
    • Aggregation Functions
    • Graph Attention Networks (GAT)
    • Social Network Analysis with GNNs
    • Symmetry Groups in Machine Learning
    • Graph Laplacian and Spectral Properties
    • Multi-Layer Information Propagation
    • Node, Edge, and Graph-Level Tasks
    • Graph-Based Recommendation Systems
    • Unifying CNNs, GNNs, and Transformers
    • Challenges of Learning on Graphs
    • Over-Smoothing Problem
    • Graph Pooling and Readout Functions
    • Point Clouds and 3D Data
    • Equivariant Neural Networks
    • Expressiveness and the WL Test
    • Knowledge Graph Reasoning
    • Frontiers of Geometric Machine Learning
  • Sequence Models and Attention(24 concepts)
    • RNN Fundamentals
    • LSTM Architecture
    • Attention Intuition and Motivation
    • Positional Encoding
    • Scaling Laws for Neural Language Models
    • Backpropagation Through Time
    • LSTM Gate Mechanics
    • Query-Key-Value Framework
    • Encoder-Decoder Transformer
    • Encoder-Only Models (BERT Paradigm)
    • Sequence-to-Sequence Framework
    • GRU Architecture
    • Scaled Dot-Product Attention
    • Causal Masking
    • Decoder-Only Models (GPT Paradigm)
    • Teacher Forcing
    • LSTM vs GRU: When to Use Which
    • Self-Attention
    • Feed-Forward Networks in Transformers
    • Encoder-Decoder Models (T5 Paradigm)
    • Bidirectional RNNs
    • Multi-Head Attention
    • Residual Connections and Layer Normalization in Transformers
    • Efficient Attention Variants
  • Training Deep Networks(24 concepts)
    • Vanishing Gradients
    • Internal Covariate Shift
    • Overfitting in Deep Networks
    • SGD with Momentum
    • Mixed Precision Training Fundamentals
    • Exploding Gradients
    • Batch Normalization
    • Dropout Regularization
    • AdaGrad and RMSProp
    • Loss Scaling for Mixed Precision
    • Gradient Clipping
    • Layer Normalization
    • Early Stopping
    • Adam Optimizer
    • Transfer Learning Fundamentals
    • Diagnosing Gradient and Activation Issues
    • Group and Instance Normalization
    • Weight Decay and L2 Regularization
    • Learning Rate Warmup
    • Fine-Tuning Strategies
    • Normalization Placement Strategies
    • Data Augmentation as Regularization
    • Cosine Annealing and Other Schedules
    • Feature Extraction vs Full Fine-Tuning
  • ML Engineering and Operations(23 concepts)
    • The ML Lifecycle
    • Data Versioning
    • ML Testing Pyramid
    • Model Monitoring Fundamentals
    • ML System Design Patterns
    • Experiment Tracking
    • Model Registry and Versioning
    • Continuous Training Pipelines
    • Data Drift Detection
    • Technical Debt in ML Systems
    • Reproducibility in ML
    • Feature Stores
    • Model Validation Gates
    • Concept Drift
    • Data Management Best Practices
    • Hyperparameter Management
    • Data and Model Lineage
    • ML Deployment Strategies
    • A/B Testing for ML Models
    • ML Governance and Documentation
    • Rollback and Recovery
    • Alerting and Incident Response
    • ML Team Practices and Collaboration
  • Scalable ML Systems(23 concepts)
    • GPU Architecture for Deep Learning
    • Data Parallelism
    • Anatomy of GPU Memory Usage
    • Model Pruning
    • Batch Serving vs Real-Time Serving
    • TPU Architecture and Comparison
    • Model Parallelism
    • Activation Checkpointing (Gradient Checkpointing)
    • Model Quantization
    • Inference Optimization Techniques
    • Memory and Bandwidth Bottlenecks
    • Pipeline Parallelism
    • ZeRO: Zero Redundancy Optimizer
    • Knowledge Distillation
    • Speculative Decoding
    • Hardware Selection for ML Workloads
    • Gradient Accumulation
    • CPU and NVMe Offloading
    • Compression Tradeoffs and Combining Techniques
    • ML Serving Infrastructure
    • 3D Parallelism and Hybrid Strategies
    • Flash Attention and Memory-Efficient Attention
    • Cost Optimization for ML Inference
  • Convolutional Neural Networks(20 concepts)
    • Convolution Fundamentals
    • Max Pooling
    • LeNet: The Pioneer
    • 1x1 Convolutions
    • Filters and Kernels
    • Average and Global Pooling
    • AlexNet: The Deep Learning Revolution
    • Depthwise Separable Convolutions
    • Stride and Padding
    • Feature Map Hierarchy
    • VGGNet: Depth with Simplicity
    • Dilated (Atrous) Convolutions
    • Output Dimension Calculation
    • Receptive Field
    • ResNet: Skip Connections and Depth
    • Transposed Convolutions
    • Translation Equivariance and Weight Sharing
    • Channels and Depth Dimension
    • Architecture Evolution Principles
    • CNN Architectural Design Principles
  • Generative Models(24 concepts)
    • Generative vs Discriminative Models
    • Basic Autoencoders
    • GAN Framework and Minimax Game
    • Diffusion Model Intuition
    • Frechet Inception Distance (FID)
    • Modeling High-Dimensional Distributions
    • Variational Autoencoders (VAE)
    • Mode Collapse and Training Instability
    • Denoising Score Matching
    • Inception Score (IS)
    • Latent Variable Models
    • Evidence Lower Bound (ELBO)
    • Wasserstein GAN (WGAN)
    • Normalizing Flows
    • Quality vs Diversity Tradeoff
    • Maximum Likelihood for Generative Models
    • The Reparameterization Trick
    • Conditional GANs
    • Classifier-Free Guidance
    • Comparing Generative Model Families
    • Latent Space Properties and Interpolation
    • Progressive Training and StyleGAN
    • Autoregressive Generative Models
    • Applications of Generative Models
  • Representation Learning(23 concepts)
    • From Hand-Crafted Features to Learned Representations
    • Contextual Embeddings
    • Self-Supervised Learning Paradigm
    • What is Disentanglement?
    • Transfer Learning Theory and Practice
    • Embedding Spaces
    • Masked Language Modeling
    • Contrastive Learning Framework
    • Beta-VAE and Regularized Disentanglement
    • Domain Adaptation
    • Word2Vec
    • Next-Token Prediction as Representation Learning
    • SimCLR: Simple Contrastive Learning
    • Measuring Disentanglement
    • Foundation Models
    • GloVe Embeddings
    • Probing and Understanding Representations
    • CLIP: Contrastive Language-Image Pretraining
    • Theoretical Limits of Unsupervised Disentanglement
    • Parameter-Efficient Fine-Tuning
    • Limitations of Static Embeddings
    • Non-Contrastive Self-Supervised Methods
    • Risks and Limitations of Foundation Models

AI in the Real World

~300h

Applying AI to real domains (NLP, vision, recommender systems) and reasoning about its societal impact — safety, alignment, fairness, governance, human-AI interaction, and economics. These concerns only grow more important as AI capabilities increase.

  • AI Governance & Regulation(21 concepts)
    • The EU AI Act
    • Risk-Based AI Governance Frameworks
    • Responsible AI Frameworks
    • Copyright & AI Training Data
    • Open Source vs Closed Models Debate
    • US AI Policy & Executive Orders
    • ISO & IEEE AI Standards
    • AI Governance Organizational Structure
    • Ownership of AI-Generated Content
    • Foundation Model Governance
    • China's AI Regulations
    • AI Risk Assessment in Practice
    • AI Lifecycle Governance
    • GDPR & Machine Learning
    • International AI Governance Cooperation
    • Regulatory Approaches Compared
    • Conformity Assessment & Certification
    • AI Incident Response
    • Privacy-Preserving ML Techniques
    • Compute Governance
    • AI & Patent Law
  • AI Safety & Alignment(23 concepts)
    • The Alignment Problem Defined
    • Reinforcement Learning from Human Feedback (RLHF)
    • LIME (Local Interpretable Model-Agnostic Explanations)
    • Adversarial Examples
    • Existential Risk Arguments
    • Reward Hacking
    • Constitutional AI
    • SHAP (SHapley Additive exPlanations)
    • Adversarial Attack Methods
    • AI Containment & Boxing
    • Specification Gaming
    • AI Debate & Amplification
    • Attention Visualization
    • Adversarial Defense Strategies
    • Corrigibility & Shutdown Problem
    • Outer vs Inner Alignment
    • Limitations of Reward Modeling
    • Mechanistic Interpretability
    • Distribution Shift & Out-of-Distribution Detection
    • The Bridge from Current to Future Safety
    • Mesa-Optimization
    • Faithfulness vs Usefulness of Explanations
    • Responsible AI Development Practices
  • AI Economics & Labor(20 concepts)
    • AI in Developing Economies
    • Historical Patterns of Technological Unemployment
    • AI Productivity Gains
    • Economics of Training Large Models
    • AI & Economic Inequality
    • AI Geopolitics & Competition
    • Task-Based Framework for Automation
    • Comparative Advantage with AI
    • Data as an Economic Asset
    • Universal Basic Income Debate
    • The AI Digital Divide
    • Evidence on AI Job Displacement
    • The AI Productivity Paradox
    • Winner-Take-All Dynamics
    • Retraining & Education Policy
    • AI Taxation Strategies
    • The Future of Work with AI
    • AI-Driven Job Creation
    • Skill Premiums & Job Polarization
    • AI Business Models
  • Computer Vision Applications(23 concepts)
    • Modern Classification Architectures
    • Two-Stage Detectors (R-CNN Family)
    • Semantic Segmentation
    • Image Generation with GANs
    • Medical Imaging Applications
    • Transfer Learning for Vision
    • Single-Stage Detectors (YOLO & SSD)
    • Instance Segmentation
    • Diffusion Models for Image Synthesis
    • Autonomous Driving Perception
    • Data Augmentation Strategies
    • Anchor-Free Detection
    • Panoptic Segmentation
    • Neural Style Transfer
    • Depth Estimation
    • Classification Evaluation & Error Analysis
    • Detection Evaluation Metrics
    • Segmentation Loss Functions
    • Video Understanding & Temporal Modeling
    • Point Cloud Processing
    • Vision Transformers
    • Feature Pyramid Networks
    • Object Tracking
  • Fairness, Accountability & Transparency(23 concepts)
    • Sources of Bias in ML Pipelines
    • Demographic Parity
    • Audit Methodology & Frameworks
    • Model Cards
    • COMPAS & Criminal Justice Bias
    • Allocative vs Representational Harms
    • Equalized Odds & Equal Opportunity
    • Disparate Impact Analysis
    • Datasheets for Datasets
    • Hiring Algorithm Bias
    • Bias Amplification
    • Individual vs Group Fairness
    • Subgroup Performance Evaluation
    • Algorithmic Impact Assessments
    • Pre-Processing Bias Mitigation
    • Dataset Bias Case Studies
    • Fairness Impossibility Theorems
    • External & Independent Auditing
    • Transparency & Explainability Requirements
    • In-Processing & Post-Processing Mitigation
    • Choosing Fairness Metrics in Practice
    • Open Source & Reproducibility
    • Organizational Fairness Strategy
  • Recommender Systems(22 concepts)
    • User-Based Collaborative Filtering
    • Content-Based Filtering
    • Ranking Metrics (NDCG & MAP)
    • Neural Collaborative Filtering
    • Filter Bubbles & Echo Chambers
    • Item-Based Collaborative Filtering
    • Matrix Factorization
    • Precision@K and Recall@K
    • Sequential & Session-Based Recommendations
    • Popularity Bias
    • Similarity Measures for Recommendations
    • Hybrid Recommendation Approaches
    • Offline Evaluation Protocols
    • Graph Neural Networks for Recommendations
    • Multi-Stakeholder Fairness
    • Implicit vs Explicit Feedback
    • Factorization Machines
    • Beyond-Accuracy Metrics
    • Multi-Armed Bandits for Exploration
    • Responsible Recommendation Design
    • The Cold Start Problem
    • A/B Testing Recommender Systems
  • Human-AI Interaction(21 concepts)
    • Cognitive Biases in AI Interaction
    • Augmentation vs Automation
    • Types of AI Explanations
    • Conversational Design Principles
    • AI-Created Accessibility Barriers
    • Trust Calibration
    • Task Allocation in Human-AI Teams
    • Communicating Uncertainty
    • AI Persona & Tone Design
    • AI as Assistive Technology
    • Mental Models of AI
    • Collaborative Intelligence
    • When & How to Explain
    • Error Recovery & Graceful Degradation
    • Inclusive AI Design Principles
    • Automation Complacency & Skill Degradation
    • Adaptive Autonomy
    • Explanation Pitfalls & Dark Patterns
    • Cognitive Load in AI-Assisted Work
    • AI UX Design Principles
    • Multimodal AI Interaction
  • Frontiers & Open Problems(22 concepts)
    • AGI Definitions & Debates
    • Multimodal Foundation Model Architectures
    • Limitations of Pure Neural & Pure Symbolic AI
    • AI for Scientific Discovery
    • Energy & Environmental Costs of AI
    • AGI Timeline Predictions
    • World Models
    • Neurosymbolic Integration Strategies
    • AI for Mathematics & Theorem Proving
    • Open Research Questions in AI
    • Consciousness & AI
    • Vision-Language Integration
    • Program Synthesis & Reasoning
    • Quantum Machine Learning
    • How to Read ML Research Papers
    • Understanding vs Computation
    • Emergent Multimodal Capabilities
    • Knowledge Graphs & LLM Integration
    • AI for Weather & Climate Science
    • Evaluating AI Claims & Benchmarks
    • Abstract Reasoning & Abstraction Learning
    • Pathways to Contributing to AI Research
  • Natural Language Understanding(25 concepts)
    • Text Normalization
    • Language Modeling Objectives
    • Question Answering Systems
    • BERT Architecture & Masked Language Modeling
    • Prompt Engineering Principles
    • Tokenization Strategies
    • Sentiment Analysis
    • Text Summarization
    • GPT Architecture & Autoregressive Generation
    • Chain-of-Thought Reasoning
    • Subword Encoding (BPE & WordPiece)
    • Named Entity Recognition
    • Machine Translation
    • Scaling Laws & Emergent Abilities
    • Hallucination & Confabulation
    • Word Embeddings
    • Text Classification
    • Decoding Strategies
    • Instruction Tuning & RLHF
    • Retrieval-Augmented Generation (RAG)
    • Contextual Embeddings
    • Sequence Labeling
    • Generation Evaluation Metrics
    • In-Context Learning & Few-Shot Prompting
    • Grounding & Factual Verification
  • AI for Decision Making(23 concepts)
    • Decision Making Under Uncertainty
    • Correlation vs Causation in AI
    • Clinical Decision Support Systems
    • Algorithmic Trading
    • Human-AI Decision Teaming
    • Utility Functions & Preferences
    • Counterfactual Reasoning
    • AI-Assisted Diagnosis
    • AI Credit Scoring
    • Automation Bias
    • Multi-Criteria Decision Making
    • Treatment Effect Estimation
    • AI for Treatment Recommendations
    • AI Fraud Detection
    • Levels of AI Autonomy
    • Value of Information
    • Causal Graphs & DAGs
    • Ethics of Healthcare AI
    • Criminal Justice Risk Assessment
    • When NOT to Use AI
    • Heterogeneous Treatment Effects
    • Predictive Policing
    • Decision Audit & Accountability

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Frequently asked questions

How long does the AI & Machine Learning roadmap take?
About 1000 hours of focused learning. At Mochivia's 15-minutes-a-day pace that's roughly 131 months — and going deeper on some days shortens it. The roadmap is self-paced, so there's no deadline.
What does the AI & Machine Learning roadmap cover?
30 courses across 3 areas — Foundations of Intelligent Systems, Deep Learning & Modern Architectures, AI in the Real World — broken into 670 bite-size concepts, each taught as an interactive lesson.
Do I need prior experience to start?
No. The roadmap starts from fundamentals and builds in prerequisite order — each concept unlocks the next, so you're never thrown into material you haven't been prepared for. If you already know the basics, a placement check skips you ahead.
Is the AI & Machine Learning roadmap free?
You can sign up free and start learning immediately. Mochivia's premium subscription unlocks unlimited daily lessons and the full roadmap depth.

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