Vehicular Motion Planning for Parallel and Reverse Parking
碩士 === 國立成功大學 === 機械工程學系 === 103 === Vehicle collision-free path planning is available path which car can drive on, and, meanwhile, is satisfied physical-constraint and away from barrier. First, we focus on some theories, for the purpose finding a feasible path between obstacles. Second, we also sea...
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ndltd-TW-103NCKU54890832016-08-15T04:17:44Z http://ndltd.ncl.edu.tw/handle/64725452676400499740 Vehicular Motion Planning for Parallel and Reverse Parking 車輛平行停車及倒車入庫之路徑規劃 Wen-ChihWang 王文志 碩士 國立成功大學 機械工程學系 103 Vehicle collision-free path planning is available path which car can drive on, and, meanwhile, is satisfied physical-constraint and away from barrier. First, we focus on some theories, for the purpose finding a feasible path between obstacles. Second, we also search math formulas to analyze. After comparing those curve, we select bezier curve to be choice. Because bezier curve has curvature continuum property. Third, we use “swept volume” concept to calculate the collision between car and obstacles for reducing calculating time. Base on those background, we can use optimum design to acquire a feasible bezier curve for car to drive on. We also need some car’s dimension to scale for the test model. In simple way, we pick up steer mechanism of rack and pinion and rear drive. So we use LEXUS IS 300h to be model, scaling down its dimension to small size. Finally, combine this model with electric control system, and try to let car drive on ideal trajectory. Tsai-Jeon Huang 黃才烱 2015 學位論文 ; thesis 60 zh-TW |
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碩士 === 國立成功大學 === 機械工程學系 === 103 === Vehicle collision-free path planning is available path which car can drive on, and, meanwhile, is satisfied physical-constraint and away from barrier. First, we focus on some theories, for the purpose finding a feasible path between obstacles. Second, we also search math formulas to analyze. After comparing those curve, we select bezier curve to be choice. Because bezier curve has curvature continuum property. Third, we use “swept volume” concept to calculate the collision between car and obstacles for reducing calculating time. Base on those background, we can use optimum design to acquire a feasible bezier curve for car to drive on.
We also need some car’s dimension to scale for the test model. In simple way, we pick up steer mechanism of rack and pinion and rear drive. So we use LEXUS IS 300h to be model, scaling down its dimension to small size. Finally, combine this model with electric control system, and try to let car drive on ideal trajectory.
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Tsai-Jeon Huang |
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Tsai-Jeon Huang Wen-ChihWang 王文志 |
author |
Wen-ChihWang 王文志 |
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Wen-ChihWang 王文志 Vehicular Motion Planning for Parallel and Reverse Parking |
author_sort |
Wen-ChihWang |
title |
Vehicular Motion Planning for Parallel and Reverse Parking |
title_short |
Vehicular Motion Planning for Parallel and Reverse Parking |
title_full |
Vehicular Motion Planning for Parallel and Reverse Parking |
title_fullStr |
Vehicular Motion Planning for Parallel and Reverse Parking |
title_full_unstemmed |
Vehicular Motion Planning for Parallel and Reverse Parking |
title_sort |
vehicular motion planning for parallel and reverse parking |
publishDate |
2015 |
url |
http://ndltd.ncl.edu.tw/handle/64725452676400499740 |
work_keys_str_mv |
AT wenchihwang vehicularmotionplanningforparallelandreverseparking AT wángwénzhì vehicularmotionplanningforparallelandreverseparking AT wenchihwang chēliàngpíngxíngtíngchējídàochērùkùzhīlùjìngguīhuà AT wángwénzhì chēliàngpíngxíngtíngchējídàochērùkùzhīlùjìngguīhuà |
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