Influence of relative movement of bilateral limbs on center of body mass during treadmill running

碩士 === 國立成功大學 === 體育健康與休閒研究所 === 100 === According to previous studies, it has been found that there are differences between treadmill running and overground running for kinematic and kinetic parameters. Therefore, it seemed to be inappropriate to apply the results of treadmill running to overground...

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Main Authors: Pei-WeiChi, 紀培偉
Other Authors: Hung-Ta Chiu
Format: Others
Language:zh-TW
Published: 2012
Online Access:http://ndltd.ncl.edu.tw/handle/17684519343318830268
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spelling ndltd-TW-100NCKU54201022015-10-13T21:38:03Z http://ndltd.ncl.edu.tw/handle/17684519343318830268 Influence of relative movement of bilateral limbs on center of body mass during treadmill running 跑步機跑步雙腳相對運動對身體質量中心的影響 Pei-WeiChi 紀培偉 碩士 國立成功大學 體育健康與休閒研究所 100 According to previous studies, it has been found that there are differences between treadmill running and overground running for kinematic and kinetic parameters. Therefore, it seemed to be inappropriate to apply the results of treadmill running to overground running. Treadmill movement should be regarded as a new motion mode, and establishing the treadmill motion pattern will be necessary in the future. The purpose of this research is to investigate how the runners control their center of mass in safety region of the treadmill deck as the treadmill speed is changing. A motion capture system (visualeyes4000) was used in this study to capture the kinematics of the thirteen subjects who were asked to run on a motor driven treadmill for ten minutes. The protocol of the speed change is as following: up to 10 km/hr in 2mins, 10 km/hr to 11 km/hr after 4mins, 11 km/hr to 10 km/hr after 6mins, 10 km/hr to 9km/hr after 8mins, 9 km/hr to 10 km/hr after 10mins. The phase angle and bilateral limb angle of the bilateral heel movement were calculated and analyzed at heel strike (HS) and toe off (TO) events of right and left foot. The results showed that the center of mass of the runners had a little shift during the ten minutes of treadmill running. As the speed increased, the phase angles of bilateral foot were significantly greater in transition phase than those in steady state. As the speed decreased, the phase angles of bilateral foot were significantly smaller in transition phase than those in steady state. However, the phase angle of bilateral foot will go back to stationary region from 1510 to 1570 in the following steady state phase. It seemed to be suggested that the runner seemed to adjust their relative movement of bilateral foot to control their center of mass in the safety region as the treadmill speed changed. Hung-Ta Chiu 邱宏達 2012 學位論文 ; thesis 78 zh-TW
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language zh-TW
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description 碩士 === 國立成功大學 === 體育健康與休閒研究所 === 100 === According to previous studies, it has been found that there are differences between treadmill running and overground running for kinematic and kinetic parameters. Therefore, it seemed to be inappropriate to apply the results of treadmill running to overground running. Treadmill movement should be regarded as a new motion mode, and establishing the treadmill motion pattern will be necessary in the future. The purpose of this research is to investigate how the runners control their center of mass in safety region of the treadmill deck as the treadmill speed is changing. A motion capture system (visualeyes4000) was used in this study to capture the kinematics of the thirteen subjects who were asked to run on a motor driven treadmill for ten minutes. The protocol of the speed change is as following: up to 10 km/hr in 2mins, 10 km/hr to 11 km/hr after 4mins, 11 km/hr to 10 km/hr after 6mins, 10 km/hr to 9km/hr after 8mins, 9 km/hr to 10 km/hr after 10mins. The phase angle and bilateral limb angle of the bilateral heel movement were calculated and analyzed at heel strike (HS) and toe off (TO) events of right and left foot. The results showed that the center of mass of the runners had a little shift during the ten minutes of treadmill running. As the speed increased, the phase angles of bilateral foot were significantly greater in transition phase than those in steady state. As the speed decreased, the phase angles of bilateral foot were significantly smaller in transition phase than those in steady state. However, the phase angle of bilateral foot will go back to stationary region from 1510 to 1570 in the following steady state phase. It seemed to be suggested that the runner seemed to adjust their relative movement of bilateral foot to control their center of mass in the safety region as the treadmill speed changed.
author2 Hung-Ta Chiu
author_facet Hung-Ta Chiu
Pei-WeiChi
紀培偉
author Pei-WeiChi
紀培偉
spellingShingle Pei-WeiChi
紀培偉
Influence of relative movement of bilateral limbs on center of body mass during treadmill running
author_sort Pei-WeiChi
title Influence of relative movement of bilateral limbs on center of body mass during treadmill running
title_short Influence of relative movement of bilateral limbs on center of body mass during treadmill running
title_full Influence of relative movement of bilateral limbs on center of body mass during treadmill running
title_fullStr Influence of relative movement of bilateral limbs on center of body mass during treadmill running
title_full_unstemmed Influence of relative movement of bilateral limbs on center of body mass during treadmill running
title_sort influence of relative movement of bilateral limbs on center of body mass during treadmill running
publishDate 2012
url http://ndltd.ncl.edu.tw/handle/17684519343318830268
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