DemonDamon/agentic-rl-knowledge-map
Comprehensive Agentic RL Knowledge Map: From Foundations to Advanced Topics (PhD-level Mathematics)
Agentic Reinforcement Learning: A Comprehensive Knowledge Map
Version: 1.0
Authors: Damon Li
1. Introduction
This repository provides a comprehensive and mathematically rigorous knowledge map for the field of Agentic Reinforcement Learning (RL). It is designed for researchers and practitioners with a strong mathematical background, particularly those at the PhD level in mathematics, statistics, or related disciplines. The content spans from the foundational principles of Markov Decision Processes to the cutting-edge frontiers of multi-agent, meta, and model-based RL.
Our primary objective is to present the core concepts of RL not merely as algorithmic recipes, but as a formal mathematical framework. Each topic is meticulously detailed with:
- Formal Definitions and Proofs: Key concepts are introduced using the precise language of set theory, probability, and optimization. Theorems are stated and proven rigorously.
- Algorithmic and Complexity Analysis: Algorithms are presented with detailed pseudocode, alongside analyses of their computational complexity, convergence properties, and numerical stability.
- Scholarly Citations: All claims and algorithms are grounded in seminal papers from top-tier conferences (e.g., NeurIPS, ICML, ICLR) and classic textbooks, with references provided in BibTeX format.
- Structural Organization: The knowledge is organized hierarchically, from foundational theory to advanced applications, to facilitate structured learning and quick reference.
This knowledge map is intended to be a living document, continuously updated to reflect the latest advancements in the rapidly evolving field of Agentic RL.
2. Knowledge Map Overview (Mindmap)
The following mindmap illustrates the high-level structure of this knowledge repository, showing the main pillars and their interconnections.
graph TD
A[Agentic RL Knowledge Map] --> B[01. Foundations];
A --> C[02. Classical RL Algorithms];
A --> D[03. Deep Reinforcement Learning];
A --> E[04. Multi-Agent RL];
A --> F[05. Advanced Topics];
A --> G[06. Applications];
subgraph 01. Foundations
B1[MDP & Markov Processes];
B2[Dynamic Programming];
B3[Monte Carlo Methods];
B4[Temporal-Difference Learning];
B5[Function Approximation];
end
subgraph 02. Classical RL Algorithms
C1[Value & Policy Iteration];
C2[Q-Learning];
C3[SARSA];
C4[Actor-Critic];
C5[Eligibility Traces];
end
subgraph 03. Deep Reinforcement Learning
D1[DQN Family];
D2[Policy Gradient Methods];
D3[Deterministic Policy Gradient];
D4[Distributed RL];
end
subgraph 04. Multi-Agent RL
E1[Game Theory Foundations];
E2[Cooperative Learning];
E3[Competitive Learning];
E4[Communication Mechanisms];
end
subgraph 05. Advanced Topics
F1[Model-Based RL];
F2[Meta-RL];
F3[Offline RL];
F4[Online & Adaptive RL];
F5[Hierarchical RL];
F6[Inverse RL];
F7[Safe RL];
end
subgraph 06. Applications
G1[Robotics Control];
G2[Game AI];
G3[Autonomous Driving];
end
B --> B1 & B2 & B3 & B4 & B5;
C --> C1 & C2 & C3 & C4 & C5;
D --> D1 & D2 & D3 & D4;
E --> E1 & E2 & E3 & E4;
F --> F1 & F2 & F3 & F4 & F5 & F6 & F7;
G --> G1 & G2 & G3;
3. Table of Contents
This table provides a complete, navigable index of the entire knowledge base. Each link points to a detailed README.md file for the corresponding topic.