Get in Touch

Course Outline

Introduction to Path Planning for Autonomous Vehicles

  • Core principles and challenges in path planning
  • Use cases in autonomous driving and robotics
  • Review of conventional and contemporary planning methods

Graph-Based Path Planning Algorithms

  • Introduction to A* and Dijkstra algorithms
  • Applying A* for grid-based pathfinding
  • Dynamic variations: D* and D* Lite for shifting environments

Sampling-Based Path Planning Algorithms

  • Random sampling methods: RRT and RRT*
  • Path smoothing and refinement
  • Managing non-holonomic constraints

Optimization-Based Path Planning

  • Structuring the path planning challenge as an optimization task
  • Trajectory optimization via nonlinear programming
  • Gradient-based and gradient-free optimization approaches

Learning-Based Path Planning

  • Deep reinforcement learning (DRL) for path refinement
  • Blending DRL with conventional algorithms
  • Adaptive path planning leveraging machine learning models

Managing Dynamic and Uncertain Environments

  • Reactive planning methods for instant response
  • Obstacle avoidance and predictive control
  • Incorporating perception data for adaptive navigation

Evaluating and Benchmarking Path Planning Algorithms

  • Metrics for path efficiency, safety, and computational load
  • Simulation and testing using ROS and Gazebo
  • Case study: Contrasting RRT* and D* in complex settings

Case Studies and Real-World Applications

  • Path planning for autonomous delivery robots
  • Applications in self-driving cars and UAVs
  • Project: Building an adaptive path planner using RRT*

Requirements

  • Strong proficiency in Python programming
  • Practical experience with robotics systems and control algorithms
  • Knowledge of autonomous vehicle technologies

Audience

  • Robotics engineers focused on autonomous systems
  • AI researchers concentrating on path planning and navigation
  • Advanced-level developers engaged in self-driving technology
 21 Hours

Related Categories