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Course Outline

1. Introduction to Deep Reinforcement Learning

  • Defining Reinforcement Learning
  • Distinguishing Supervised, Unsupervised, and Reinforcement Learning
  • DRL applications in 2025 (robotics, healthcare, finance, logistics)
  • Analyzing the agent-environment interaction loop

2. Reinforcement Learning Fundamentals

  • Markov Decision Processes (MDP)
  • Concepts of State, Action, Reward, Policy, and Value functions
  • Balancing Exploration vs. Exploitation
  • Monte Carlo methods and Temporal-Difference (TD) learning

3. Implementing Basic RL Algorithms

  • Tabular approaches: Dynamic Programming, Policy Evaluation, and Iteration
  • Q-Learning and SARSA mechanisms
  • Epsilon-greedy exploration and decay strategies
  • Creating RL environments with OpenAI Gymnasium

4. Transition to Deep Reinforcement Learning

  • Limitations associated with tabular methods
  • Leveraging neural networks for function approximation
  • Deep Q-Network (DQN) architecture and operational workflow
  • Experience replay and target network usage

5. Advanced DRL Algorithms

  • Double DQN, Dueling DQN, and Prioritized Experience Replay
  • Policy Gradient Methods: The REINFORCE algorithm
  • Actor-Critic architectures (A2C, A3C)
  • Proximal Policy Optimization (PPO)
  • Soft Actor-Critic (SAC)

6. Working with Continuous Action Spaces

  • Challenges inherent in continuous control
  • Applying DDPG (Deep Deterministic Policy Gradient)
  • Twin Delayed DDPG (TD3)

7. Practical Tools and Frameworks

  • Utilizing Stable-Baselines3 and Ray RLlib
  • Logging and monitoring via TensorBoard
  • Hyperparameter tuning for DRL models

8. Reward Engineering and Environment Design

  • Reward shaping and penalty balancing techniques
  • Sim-to-real transfer learning principles
  • Developing custom environments in Gymnasium

9. Partially Observable Environments and Generalization

  • Managing incomplete state information (POMDPs)
  • Memory-based strategies using LSTMs and RNNs
  • Enhancing agent robustness and generalization capabilities

10. Game Theory and Multi-Agent Reinforcement Learning

  • Overview of multi-agent environments
  • Dynamics of Cooperation vs. competition
  • Use cases in adversarial training and strategy refinement

11. Case Studies and Real-World Applications

  • Simulating autonomous driving scenarios
  • Dynamic pricing and financial trading tactics
  • Robotics and industrial automation processes

12. Troubleshooting and Optimization

  • Identifying and resolving unstable training issues
  • Addressing reward sparsity and overfitting
  • Scaling DRL models across GPUs and distributed systems

13. Summary and Next Steps

  • Review of DRL architecture and essential algorithms
  • Current industry trends and research paths (e.g., RLHF, hybrid models)
  • Recommended further resources and reading materials

Requirements

  • Strong proficiency in Python programming
  • Solid understanding of Calculus and Linear Algebra
  • Foundational knowledge of Probability and Statistics
  • Experience developing machine learning models with Python, NumPy, or TensorFlow/PyTorch

Target Audience

  • Developers focused on AI and intelligent system development
  • Data Scientists investigating reinforcement learning frameworks
  • Machine Learning Engineers specialized in autonomous systems
 21 Hours

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