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ICRA 2012

A robot path planning framework that learns from experience

Conference Paper Accepted Paper Artificial Intelligence ยท Robotics

Abstract

We propose a framework, called Lightning, for planning paths in high-dimensional spaces that is able to learn from experience, with the aim of reducing computation time. This framework is intended for manipulation tasks that arise in applications ranging from domestic assistance to robot-assisted surgery. Our framework consists of two main modules, which run in parallel: a planning-from-scratch module, and a module that retrieves and repairs paths stored in a path library. After a path is generated for a new query, a library manager decides whether to store the path based on computation time and the generated path's similarity to the retrieved path. To retrieve an appropriate path from the library we use two heuristics that exploit two key aspects of the problem: (i) A correlation between the amount a path violates constraints and the amount of time needed to repair that path, and (ii) the implicit division of constraints into those that vary across environments in which the robot operates and those that do not. We evaluated an implementation of the framework on several tasks for the PR2 mobile manipulator and a minimally-invasive surgery robot in simulation. We found that the retrieve-and-repair module produced paths faster than planning-from-scratch in over 90% of test cases for the PR2 and in 58% of test cases for the minimally-invasive surgery robot.

Authors

Keywords

  • Libraries
  • Robots
  • Maintenance engineering
  • Planning
  • Lightning
  • Path planning
  • Surgery
  • Heuristic
  • High-dimensional
  • Computation Time
  • Minimally Invasive Surgery
  • Reduce Computation Time
  • Library Directors
  • Mobile Manipulator
  • Parallelization
  • Cloud Computing
  • Types Of Tasks
  • Library Size
  • Coronary Artery Bypass Grafting
  • Line Segment
  • Environmental Areas
  • Constraint Violation
  • Domestic Environment
  • Planning Algorithm
  • Planning Problem
  • Ports Of Entry
  • Path Segment
  • Dynamic Time Warping
  • Inverse Kinematics
  • Implementation Of Modules
  • Joint Rotation

Context

Venue
IEEE International Conference on Robotics and Automation
Archive span
1984-2025
Indexed papers
30179
Paper id
898702525504277041
v2026.09.13