The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems

碩士 === 淡江大學 === 機械工程學系 === 86 ===   A controller includes motion and force control algorithms is developed in this research for the Automated Surface Finishing System (ASFS). For the motion control, we utilize a proportional-plus-integral-plus-differntial control algorithm and the cross-coupling re...

Full description

Bibliographic Details
Main Authors: Huang, Hsien-Chung, 黃賢中
Other Authors: Wang, Yin-Tien
Format: Others
Language:zh-TW
Published: 1998
Online Access:http://ndltd.ncl.edu.tw/handle/05723306849784252177
id ndltd-TW-086TKU03489019
record_format oai_dc
spelling ndltd-TW-086TKU034890192015-10-13T17:34:49Z http://ndltd.ncl.edu.tw/handle/05723306849784252177 The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems 自動拋光系統用位置/力量混合控制器研發 Huang, Hsien-Chung 黃賢中 碩士 淡江大學 機械工程學系 86   A controller includes motion and force control algorithms is developed in this research for the Automated Surface Finishing System (ASFS). For the motion control, we utilize a proportional-plus-integral-plus-differntial control algorithm and the cross-coupling relationship between axes of servomechanisms to reduce the contour error generated during the motion of the ASFS. While a proportional-plus-differential-plus-feedforward control algorithm is employed for control of the grinding-polishing contact force. We intend to keep the contact force to be constant during the finishing processes.   There are three research stages in this thesis. Firstly, we systematically review previous research works. According to the literatures, we can indirectly affect the surface roughness of the ground workpiece by the proper control of the contact force. Secondly, the motion and force control algorithms are analyzed and simulated. Finally, the integrated Automated Surface Finishing System is tested on a sel-constructed XYZ servomechanism. The expertimental results show that the uses of the proposed motion and force control algorithms can effectively reduce the contour error and retain a constant contact force durign the finishing processes. Wang, Yin-Tien 王銀添 1998 學位論文 ; thesis 65 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 淡江大學 === 機械工程學系 === 86 ===   A controller includes motion and force control algorithms is developed in this research for the Automated Surface Finishing System (ASFS). For the motion control, we utilize a proportional-plus-integral-plus-differntial control algorithm and the cross-coupling relationship between axes of servomechanisms to reduce the contour error generated during the motion of the ASFS. While a proportional-plus-differential-plus-feedforward control algorithm is employed for control of the grinding-polishing contact force. We intend to keep the contact force to be constant during the finishing processes.   There are three research stages in this thesis. Firstly, we systematically review previous research works. According to the literatures, we can indirectly affect the surface roughness of the ground workpiece by the proper control of the contact force. Secondly, the motion and force control algorithms are analyzed and simulated. Finally, the integrated Automated Surface Finishing System is tested on a sel-constructed XYZ servomechanism. The expertimental results show that the uses of the proposed motion and force control algorithms can effectively reduce the contour error and retain a constant contact force durign the finishing processes.
author2 Wang, Yin-Tien
author_facet Wang, Yin-Tien
Huang, Hsien-Chung
黃賢中
author Huang, Hsien-Chung
黃賢中
spellingShingle Huang, Hsien-Chung
黃賢中
The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
author_sort Huang, Hsien-Chung
title The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
title_short The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
title_full The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
title_fullStr The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
title_full_unstemmed The Development of a Position/Force Hybrid Controller for Autpmated Surface Finishing Systems
title_sort development of a position/force hybrid controller for autpmated surface finishing systems
publishDate 1998
url http://ndltd.ncl.edu.tw/handle/05723306849784252177
work_keys_str_mv AT huanghsienchung thedevelopmentofapositionforcehybridcontrollerforautpmatedsurfacefinishingsystems
AT huángxiánzhōng thedevelopmentofapositionforcehybridcontrollerforautpmatedsurfacefinishingsystems
AT huanghsienchung zìdòngpāoguāngxìtǒngyòngwèizhìlìliànghùnhékòngzhìqìyánfā
AT huángxiánzhōng zìdòngpāoguāngxìtǒngyòngwèizhìlìliànghùnhékòngzhìqìyánfā
AT huanghsienchung developmentofapositionforcehybridcontrollerforautpmatedsurfacefinishingsystems
AT huángxiánzhōng developmentofapositionforcehybridcontrollerforautpmatedsurfacefinishingsystems
_version_ 1717781305031131136