LIVE ONLINE
Reinforcement Learning Fundamentals for Simulation and Control in the Automotive Industry
Course
Objectives
This course provides technical professionals with a solid foundation in reinforcement learning (RL) and deep RL strategies, with a focus on simulation and control applications in the automotive industry. Participants will learn how to select, implement, and evaluate RL algorithms, model agent behavior, and apply best practices in tuning and optimization.
Format: Live online
Language: English
Duration: 20 hours (10 sessions of 2 hours each)
Certificate: Issued upon completion
Main Tool: PyTorch (others: TensorFlow/Keras optional)
Level: Intermediate to Advanced
Delivery: Project-based, hands-on sessions from day one
Start Course: 20th October 2025
Fee: USD $1,900
Target Audience
Professionals with a technical background (e.g., engineers, developers)
Experience in Python programming, linear algebra, statistics, and machine learning concepts
Prerequisites
Course Outline
Block 1: Foundations and Decision Modeling
Introduction to AI, Classical ML, and Ethics
-
Key AI and ML definitions -
Types of learning (supervised, unsupervised, reinforcement) -
Ethical and industry considerations in automotive applications
Decision Modeling: MDPs and Environment Dynamics
-
Markov Decision Processes (states, actions, rewards, transitions) -
Bellman equations and value backups
Block 2: Core RL Algorithms
Value-Based Methods – Q-Learning, SARSA, Deep Q-Networks (DQN)
-
Q-Learning and SARSA (on-policy vs. off-policy) -
DQN: replay buffer, target networks, instability challenges
Policy-Based Methods – REINFORCE and Actor-Critic
-
Policy gradients methods -
Actor-Critic architecture and advantages in continuous spaces
Deep RL and Function Approximation
-
Neural network regression for Q functions -
Stability, convergence, and error sources (bias vs. variance)
Block 3: Advanced Algorithms and Architectures
Advanced Algorithms – PPO, DDPG, TD3, SAC
-
Proximal Policy Optimization (PPO) and Trust Region concepts -
Deep Deterministic Policy Gradient (DDPG) and its challenges -
Twin Delayed DDPG (TD3) improvements -
Soft Actor-Critic (SAC) for robust, sample-efficient learning
Hierarchical RL and Transfer Learning
-
Multi-level policy design for complex tasks -
Transfer learning techniques for RL agents
Multi-Agent Reinforcement Learning
-
Fundamentals of cooperation and competition -
Communication, coordination, and scalability challenges
Block 4: Optimization and Applied Project
Hyperparameter Tuning & Best Practices
-
Neural network architecture, learning rate schedules -
Reward shaping and exploration–exploitation trade-offs
Capstone Project: Real-World Simulation Case and Final Pitch
-
Definition of a control/simulation problem -
Collaborative solution development (pairs or teams) -
Final pitch: performance metrics, results, and lessons learned