Artificial Intelligence
A comprehensive, modern roadmap to Artificial Intelligence — from intelligent agents and heuristic search to deep neural networks, transformer models, and autonomous tool-calling agents.
Intelligent Agents & Problem Formulation
Phase 1: Foundations of Artificial Intelligence
Core concepts of intelligent rational agents, problem spaces, and search algorithms.
Intelligent Agents & Environments
Understanding the PEAS framework (Performance measure, Environment, Actuators, Sensors), agent architectures, and environment properties (fully vs partially observable, deterministic vs stochastic).
State Space Search & Uninformed Search
Formulating problems as state spaces and finding paths to goals using Breadth-First Search (BFS), Depth-First Search (DFS), and Uniform Cost Search (UCS).
Heuristic & Adversarial Search (A* and Minimax)
Informed search algorithms using admissible heuristics (A* Search) and decision-making in competitive two-player zero-sum games (Minimax with Alpha-Beta pruning).
Phase 2: Knowledge Representation & Logical Reasoning
Formal symbolic logic, ontological knowledge graphs, and handling uncertainty.
Propositional & First-Order Logic
Formal logic syntax and semantics, truth tables, inference rules (Modus Ponens, Resolution), unification, and forward/backward chaining.
Knowledge Graphs & Semantic Ontologies
Entity-relation modeling, RDF triples, SPARQL querying, and modern vector-grounded enterprise knowledge graphs.
Probabilistic Reasoning & Bayesian Networks
Modeling uncertainty with probability distributions, conditional independence, Bayes rule, and inference in Directed Acyclic Graphical Models (Bayesian Networks).
Phase 3: Decision Making Under Uncertainty & Reinforcement Learning
Dynamic programming, Markov processes, and learning from trial-and-error reward signals.
Markov Decision Processes (MDP)
State spaces, action spaces, transition probabilities, discount factors, and solving for optimal policies via Bellman Equations and Value/Policy Iteration.
Model-Free RL (Q-Learning & SARSA)
Temporal Difference learning without explicit transition dynamics. Exploration vs exploitation (epsilon-greedy), Q-value estimation, and off-policy vs on-policy learning.
Deep Reinforcement Learning (DQN & Policy Gradients)
Combining deep neural network function approximators with RL: Deep Q-Networks (experience replay, target networks), REINFORCE, and Actor-Critic (PPO).
Phase 4: Machine Learning Core for AI Systems
Statistical learning theory, optimization algorithms, and predictive model pipelines.
Supervised & Unsupervised Learning Foundations
Parametric vs non-parametric models, linear/logistic regression, support vector machines, decision trees, k-means clustering, and PCA dimensionality reduction.
Loss Formulation, Convexity & Gradient Descent
Mathematical foundations of optimization: gradient vectors, Hessian matrices, convex objectives, stochastic gradient descent (SGD), Adam, and learning rate schedules.
Feature Representation & Model Evaluation
Feature encoding, normalization, stratified k-fold validation, precision/recall trade-offs, ROC-AUC, and leakage prevention.
Phase 5: Deep Learning & Frontier AI Architectures
Modern neural network topologies, backpropagation calculus, and transformer architectures.
Neural Networks & Backpropagation Calculus
Multi-layer perceptrons (MLP), matrix calculus, computational graphs, non-linear activation functions (ReLU, GELU), and backprop chain rule implementation.
The Transformer Architecture & Self-Attention
Scaled dot-product attention, multi-head attention, positional encodings, layer normalization, residual connections, and encoder-decoder topologies.
Large Language Models & Pre-training
Autoregressive next-token prediction, tokenization (BPE, WordPiece), scaling laws, distributed training (FSDP, Megatron), and instruction fine-tuning (SFT, RLHF, DPO).
Phase 6: Autonomous Agents, RAG & AI Safety
Building production AI systems with external tools, knowledge grounding, and alignment.
Autonomous Agent Frameworks & Tool Calling
ReAct prompting pattern (Reasoning + Acting), function calling, tool execution loops, planning, short-term and long-term memory architectures.
Retrieval-Augmented Generation (RAG)
Vector embeddings, chunking strategies, cosine similarity search, approximate nearest neighbors (HNSW), re-ranking, and grounded generation pipelines.
AI Safety, Alignment & Robustness
Mechanistic interpretability, prompt injection defense, red teaming, constitutional AI, evaluation benchmarks, and ethical societal alignment.
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