Course Outline

Introduction to Path Planning for Autonomous Vehicles

  • Fundamentals and challenges of path planning
  • Applications in autonomous driving and robotics for government
  • Review of traditional and modern planning techniques for government use

Graph-Based Path Planning Algorithms

  • Overview of A* and Dijkstra algorithms for efficient route determination
  • Implementing A* for grid-based pathfinding in complex environments
  • Dynamic variants: D* and D* Lite for adapting to changing conditions in real-time

Sampling-Based Path Planning Algorithms

  • Random sampling techniques: Rapidly-exploring Random Trees (RRT) and RRT*
  • Path smoothing and optimization for improved performance
  • Handling non-holonomic constraints to ensure feasible paths

Optimization-Based Path Planning

  • Formulating the path planning problem as an optimization challenge for government applications
  • Trajectory optimization using nonlinear programming methods
  • Gradient-based and gradient-free optimization techniques for enhanced precision

Learning-Based Path Planning

  • Deep reinforcement learning (DRL) for optimizing path planning in dynamic scenarios
  • Integrating DRL with traditional algorithms to enhance adaptability
  • Adaptive path planning using machine learning models for government operations

Handling Dynamic and Uncertain Environments

  • Reactive planning techniques for real-time response in uncertain conditions
  • Obstacle avoidance and predictive control strategies for enhanced safety
  • Integrating perception data for adaptive navigation in complex environments

Evaluating and Benchmarking Path Planning Algorithms

  • Metrics for assessing path efficiency, safety, and computational complexity for government use
  • Simulating and testing algorithms in ROS and Gazebo for robust validation
  • Case study: Comparing RRT* and D* in complex scenarios to inform decision-making

Case Studies and Real-World Applications

  • Path planning for autonomous delivery robots in public sector operations
  • Applications in self-driving cars and unmanned aerial vehicles (UAVs) for government missions
  • Project: Implementing an adaptive path planner using RRT* for government projects

Summary and Next Steps

Requirements

  • Proficiency in Python programming for government applications
  • Experience with robotics systems and control algorithms
  • Familiarity with autonomous vehicle technologies

Audience

  • Robotics engineers specializing in autonomous systems for government projects
  • AI researchers focusing on path planning and navigation for government initiatives
  • Advanced-level developers working on self-driving technology for government use
 21 Hours

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