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EIEIO / AUTOMATION & EMERGING TECHNOLOGY

Reinforcement Learning Beginner to Master

Course outline

2 days

Duration

2 days

What you'll learn

  • Understand the Reinforcement Learning paradigm and the tasks that it's best suited to solve.
  • Understand the process of solving a cognitive task using Reinforcement Learning
  • Understand the different approaches to solving a task using Reinforcement Learning and choose the most fitting
  • Implement Reinforcement Learning algorithms completely from scratch
  • Fundamentally understand the learning process for each algorithm
  • Debug and extend the algorithms presented
  • Understand and implement new algorithms from research papers

Course Outline

The Markove Decision Process (MDP)

  • Elements common to all control tasks
  • The Markov decision process (MDP)
  • Types of Markov decision process
  • Trajectory vs episode
  • Reward vs Return
  • Policy
  • State values v(s) and action values q(s,a)
  • Bellman equations
  • Solving a Markov decision process
  • Setup - MDP in code
  • MDP in code

Dynamic Programming

  • Introduction to Dynamic Programming
  • Value iteration
  • Setup - Value iteration
  • Coding - Value iteration
  • Policy iteration
  • Setup - Policy iteration
  • Coding - Policy iteration
  • Policy evaluation
  • Coding - Policy iteration
  • Policy Improvement
  • Coding - Policy iteration
  • Policy iteration in practice
  • Generalized Policy Iteration (GPI)

Monte Carlo methods

  • Solving control tasks with Monte Carlo methods
  • On-policy Monte Carlo control
  • Setup - On-policy Monte Carlo control
  • Coding - On-policy Monte Carlo
  • Setup - Constant alpha Monte Carlo
  • Coding - Constant alpha Monte Carlo
  • Off-policy Monte Carlo control
  • Setup - Off-policy Monte Carlo control
  • Coding - Off-policy Monte Carlo

Temporal Difference Methods

  • Temporal difference methods
  • Solving control tasks with temporal difference methods
  • Monte Carlo vs temporal difference methods
  • SARSA
  • Setup - SARSA
  • Coding - SARSA
  • Q-Learning
  • Setup - Q-Learning
  • Coding - Q-Learning
  • Advantages of temporal difference methods

N-step bootstrapping

  • N-step temporal difference methods
  • Where do n-step methods fit?
  • Effect of changing n
  • N-step SARSA
  • N-step SARSA in action
  • Setup - n-step SARSA
  • Coding - n-step SARSA

Continues state spaces

  • Setup - Classic control tasks
  • Coding - Classic control tasks
  • Working with continuous state spaces
  • State aggregation
  • Setup - Continuous state spaces
  • Coding - State aggregation
  • Tile coding
  • Coding - Tile coding

Brief introduction to neural networks

  • Function approximators
  • Artificial Neural Networks
  • Artificial Neurons
  • How to represent a Neural Network
  • Stochastic Gradient Descent
  • Neural Network optimization

Deep SARSA

  • Neural Network optimization (Deep Q-Network)
  • Experience Replay
  • Target Network
  • Coding - Deep SARSA

Deep Q-Learning

  • Setup - Deep Q-Learning
  • Coding - Deep Q-Learning

Reinforce

  • Policy gradient methods
  • Representing policies using neural networks
  • Policy performance
  • The policy gradient theorem
  • REINFORCE
  • Parallel learning
  • Entropy regularization
  • REINFORCE 2
  • Coding - REINFORCE

Advantage Actor-Critic (A2C)

  • A2C
  • Setup - A2C
  • Coding - A2C

Programme scope, delivery arrangements and suitability are confirmed during enquiry.