Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle

The forward kinematic analysis of the cable-driven parallel mechanism has been a challenging and interesting problem since 10 years ago. This work converts the forward kinematic analysis problem of the cable-driven parallel mechanism to an optimization problem, whose objective is to minimize the pot...

Full description

Bibliographic Details
Main Authors: Guan Liwen, Xu Huayang, Liu Zhihua
Format: Article
Language:English
Published: SAGE Publishing 2015-12-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814015622339
id doaj-873516361d5d4d1eb1e40595d9086516
record_format Article
spelling doaj-873516361d5d4d1eb1e40595d90865162020-11-25T02:55:15ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402015-12-01710.1177/168781401562233910.1177_1687814015622339Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principleGuan LiwenXu HuayangLiu ZhihuaThe forward kinematic analysis of the cable-driven parallel mechanism has been a challenging and interesting problem since 10 years ago. This work converts the forward kinematic analysis problem of the cable-driven parallel mechanism to an optimization problem, whose objective is to minimize the potential energy of mobile platform. In order to simplify the optimization problem further so that it can be solved with any simple optimization algorithm in short time, some constraints are introduced to design variables. We utilize the sequential quadratic programming algorithm to solve the simplified optimization problem in this article. The efficiency and effectiveness of the proposed approach are validated with some numerical examples. Furthermore, due to the fact that a required pose may be not stable, the availability of its inverse kinematic solution should be supervised. The aforementioned approach provides a valid tool for solving this type of problems by contrasting the distinction between the required pose and the actual pose calculated by it. The feasibility of applying our proposed method to execute the inverse kinematic analysis of cable-driven parallel mechanism is proved with several examples in this article.https://doi.org/10.1177/1687814015622339
collection DOAJ
language English
format Article
sources DOAJ
author Guan Liwen
Xu Huayang
Liu Zhihua
spellingShingle Guan Liwen
Xu Huayang
Liu Zhihua
Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
Advances in Mechanical Engineering
author_facet Guan Liwen
Xu Huayang
Liu Zhihua
author_sort Guan Liwen
title Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
title_short Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
title_full Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
title_fullStr Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
title_full_unstemmed Kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
title_sort kinematic analysis of cable-driven parallel mechanisms based on minimum potential energy principle
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2015-12-01
description The forward kinematic analysis of the cable-driven parallel mechanism has been a challenging and interesting problem since 10 years ago. This work converts the forward kinematic analysis problem of the cable-driven parallel mechanism to an optimization problem, whose objective is to minimize the potential energy of mobile platform. In order to simplify the optimization problem further so that it can be solved with any simple optimization algorithm in short time, some constraints are introduced to design variables. We utilize the sequential quadratic programming algorithm to solve the simplified optimization problem in this article. The efficiency and effectiveness of the proposed approach are validated with some numerical examples. Furthermore, due to the fact that a required pose may be not stable, the availability of its inverse kinematic solution should be supervised. The aforementioned approach provides a valid tool for solving this type of problems by contrasting the distinction between the required pose and the actual pose calculated by it. The feasibility of applying our proposed method to execute the inverse kinematic analysis of cable-driven parallel mechanism is proved with several examples in this article.
url https://doi.org/10.1177/1687814015622339
work_keys_str_mv AT guanliwen kinematicanalysisofcabledrivenparallelmechanismsbasedonminimumpotentialenergyprinciple
AT xuhuayang kinematicanalysisofcabledrivenparallelmechanismsbasedonminimumpotentialenergyprinciple
AT liuzhihua kinematicanalysisofcabledrivenparallelmechanismsbasedonminimumpotentialenergyprinciple
_version_ 1724717182808489984