Anti-shake positioning algorithm of bridge crane based on phase plane analysis
In this study, the dynamic model of bridge crane system is established based on Lagrange equation. The transfer function of crane running system is derived. A new crane anti-swaying scheme different from traditional mechanical anti-shake strategy is proposed and it is based on phase plane analysis a...
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doaj-26e6a95e57544eaa91269e5a764ce23c2021-04-02T12:36:50ZengWileyThe Journal of Engineering2051-33052019-11-0110.1049/joe.2019.1083JOE.2019.1083Anti-shake positioning algorithm of bridge crane based on phase plane analysisYuxuan Zhu0Dan Niu1Qi Li2Youcheng Chen3Shuang Wei4Jinbo Liu5Key Laboratory of Measurement and Control of CSEKey Laboratory of Measurement and Control of CSEKey Laboratory of Measurement and Control of CSEKey Laboratory of Measurement and Control of CSEKey Laboratory of Measurement and Control of CSENanjing Sciyon Automation Group Co., LtdIn this study, the dynamic model of bridge crane system is established based on Lagrange equation. The transfer function of crane running system is derived. A new crane anti-swaying scheme different from traditional mechanical anti-shake strategy is proposed and it is based on phase plane analysis algorithm. By the adaptive speed planning method, the industrial grade bridge crane can calculate different motion trajectories online without any off-line optimisation calculation under the given acceleration and maximum speed limit conditions. At the same time, the industrial grade bridge crane realises the purpose of anti-sway and positioning of the crane. The field experiment results show that the swing of the crane is obviously suppressed and the positioning accuracy fully meets the industrial requirements when the load of the crane reaches the target position.https://digital-library.theiet.org/content/journals/10.1049/joe.2019.1083position controlcranesmotion controlanti-swaymaximum speed limit conditionsoff-line optimisation calculationdifferent motion trajectoriesindustrial grade bridge craneadaptive speed planning methodphase plane analysis algorithmtraditional mechanical anti-shake strategycrane anti-swaying scheme differentcrane running systembridge crane systemanti-shake positioning algorithm |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Yuxuan Zhu Dan Niu Qi Li Youcheng Chen Shuang Wei Jinbo Liu |
spellingShingle |
Yuxuan Zhu Dan Niu Qi Li Youcheng Chen Shuang Wei Jinbo Liu Anti-shake positioning algorithm of bridge crane based on phase plane analysis The Journal of Engineering position control cranes motion control anti-sway maximum speed limit conditions off-line optimisation calculation different motion trajectories industrial grade bridge crane adaptive speed planning method phase plane analysis algorithm traditional mechanical anti-shake strategy crane anti-swaying scheme different crane running system bridge crane system anti-shake positioning algorithm |
author_facet |
Yuxuan Zhu Dan Niu Qi Li Youcheng Chen Shuang Wei Jinbo Liu |
author_sort |
Yuxuan Zhu |
title |
Anti-shake positioning algorithm of bridge crane based on phase plane analysis |
title_short |
Anti-shake positioning algorithm of bridge crane based on phase plane analysis |
title_full |
Anti-shake positioning algorithm of bridge crane based on phase plane analysis |
title_fullStr |
Anti-shake positioning algorithm of bridge crane based on phase plane analysis |
title_full_unstemmed |
Anti-shake positioning algorithm of bridge crane based on phase plane analysis |
title_sort |
anti-shake positioning algorithm of bridge crane based on phase plane analysis |
publisher |
Wiley |
series |
The Journal of Engineering |
issn |
2051-3305 |
publishDate |
2019-11-01 |
description |
In this study, the dynamic model of bridge crane system is established based on Lagrange equation. The transfer function of crane running system is derived. A new crane anti-swaying scheme different from traditional mechanical anti-shake strategy is proposed and it is based on phase plane analysis algorithm. By the adaptive speed planning method, the industrial grade bridge crane can calculate different motion trajectories online without any off-line optimisation calculation under the given acceleration and maximum speed limit conditions. At the same time, the industrial grade bridge crane realises the purpose of anti-sway and positioning of the crane. The field experiment results show that the swing of the crane is obviously suppressed and the positioning accuracy fully meets the industrial requirements when the load of the crane reaches the target position. |
topic |
position control cranes motion control anti-sway maximum speed limit conditions off-line optimisation calculation different motion trajectories industrial grade bridge crane adaptive speed planning method phase plane analysis algorithm traditional mechanical anti-shake strategy crane anti-swaying scheme different crane running system bridge crane system anti-shake positioning algorithm |
url |
https://digital-library.theiet.org/content/journals/10.1049/joe.2019.1083 |
work_keys_str_mv |
AT yuxuanzhu antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis AT danniu antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis AT qili antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis AT youchengchen antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis AT shuangwei antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis AT jinboliu antishakepositioningalgorithmofbridgecranebasedonphaseplaneanalysis |
_version_ |
1721568320735412224 |