Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots

<p> Path planning is a common research topic and has applications in various fields and industries, such as AI, industrial automation, and mobile robotics. When applied to mobile systems, path planning algorithms are required to plan safe and feasible paths for a system from an initial state t...

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Main Author: Eaglin, Gerald
Language:EN
Published: University of Louisiana at Lafayette 2019
Subjects:
Online Access:http://pqdtopen.proquest.com/#viewpdf?dispub=10842690
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spelling ndltd-PROQUEST-oai-pqdtoai.proquest.com-108426902019-04-18T15:39:52Z Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots Eaglin, Gerald Mechanical engineering|Robotics <p> Path planning is a common research topic and has applications in various fields and industries, such as AI, industrial automation, and mobile robotics. When applied to mobile systems, path planning algorithms are required to plan safe and feasible paths for a system from an initial state to a desired final state. While most path planning algorithms have been designed for rigid systems, little work has focused on path planning algorithms for flexible systems. Motion planning for flexible systems has typically involved sequential methods that plan trajectories for a system, then apply vibration control techniques for trajectory tracking. This thesis proposes new algorithms that concurrently plan a path for a flexible system while limiting the induced vibration. </p><p> University of Louisiana at Lafayette 2019-04-12 00:00:00.0 thesis http://pqdtopen.proquest.com/#viewpdf?dispub=10842690 EN
collection NDLTD
language EN
sources NDLTD
topic Mechanical engineering|Robotics
spellingShingle Mechanical engineering|Robotics
Eaglin, Gerald
Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
description <p> Path planning is a common research topic and has applications in various fields and industries, such as AI, industrial automation, and mobile robotics. When applied to mobile systems, path planning algorithms are required to plan safe and feasible paths for a system from an initial state to a desired final state. While most path planning algorithms have been designed for rigid systems, little work has focused on path planning algorithms for flexible systems. Motion planning for flexible systems has typically involved sequential methods that plan trajectories for a system, then apply vibration control techniques for trajectory tracking. This thesis proposes new algorithms that concurrently plan a path for a flexible system while limiting the induced vibration. </p><p>
author Eaglin, Gerald
author_facet Eaglin, Gerald
author_sort Eaglin, Gerald
title Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
title_short Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
title_full Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
title_fullStr Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
title_full_unstemmed Concurrent Design of Path Planning Methods and Input Shaping for Flexible Mobile Robots
title_sort concurrent design of path planning methods and input shaping for flexible mobile robots
publisher University of Louisiana at Lafayette
publishDate 2019
url http://pqdtopen.proquest.com/#viewpdf?dispub=10842690
work_keys_str_mv AT eaglingerald concurrentdesignofpathplanningmethodsandinputshapingforflexiblemobilerobots
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