Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics
Ten pin bowling is a competitive sport that requires athletes to score as many pins possible using a bowling ball. This project aims to provide a means for coaches and bowlers of Team Singapore to measure specific kinematic movements related to the sport. The bowling movements measured are the Anter...
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sg-ntu-dr.10356-1672342023-05-27T16:50:08Z Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics Lim, Matthew Jing Long Heng Kok Hui, John Gerard School of Mechanical and Aerospace Engineering Sport Singapore mkhheng@ntu.edu.sg Engineering::Mechanical engineering Ten pin bowling is a competitive sport that requires athletes to score as many pins possible using a bowling ball. This project aims to provide a means for coaches and bowlers of Team Singapore to measure specific kinematic movements related to the sport. The bowling movements measured are the Anterior Trunk Flexion and the wrist acceleration and velocity of the bowler during the five-step movement, which will be quantified using data from Inertial Measurement Unit (IMU) sensors. Two IMU sensors will be used in this project, a proprietary sensor, Sensor A, as well as a commercially available sensor, Xsens Dot. The sensors are first compared against each to determine the sensor more viable for deployment in an actual bowling lane. In addition, the ultrawide-band (UWB) technology provided by Sensor A was also validated to determine the usability in an actual field setting. Upon the determination of a more suitable sensor, tests were conducted in a laboratory setting to mimic the actual movement on a bowling lane using the selected IMU sensor. The data was collected and compared against the Vicon motion capture camera system, which is regarded as the gold standard for video motion capture technology. Based on the data collected, it was validated that the ATF angle and wrist acceleration values recorded by the IMU sensor were relatively accurate compared to the data recorded by Vicon. The data recorded for the wrist velocity parameter showed a much larger discrepancy compared to Vicon data and is thus not an accurate indicator of an athlete's performance. Hence, the recommendation is to use the IMU sensor to measure the ATF angles and wrist acceleration values as a benchmark of the kinematic ability of the bowler. Bachelor of Engineering (Aerospace Engineering) 2023-05-24T05:59:02Z 2023-05-24T05:59:02Z 2023 Final Year Project (FYP) Lim, M. J. L. (2023). Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics. Final Year Project (FYP), Nanyang Technological University, Singapore. https://hdl.handle.net/10356/167234 https://hdl.handle.net/10356/167234 en C156 application/pdf Nanyang Technological University |
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Engineering::Mechanical engineering Lim, Matthew Jing Long Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
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Ten pin bowling is a competitive sport that requires athletes to score as many pins possible using a bowling ball. This project aims to provide a means for coaches and bowlers of Team Singapore to measure specific kinematic movements related to the sport. The bowling movements measured are the Anterior Trunk Flexion and the wrist acceleration and velocity of the bowler during the five-step movement, which will be quantified using data from Inertial Measurement Unit (IMU) sensors. Two IMU sensors will be used in this project, a proprietary sensor, Sensor A, as well as a commercially available sensor, Xsens Dot. The sensors are first compared against each to determine the sensor more viable for deployment in an actual bowling lane. In addition, the ultrawide-band (UWB) technology provided by Sensor A was also validated to determine the usability in an actual field setting. Upon the determination of a more suitable sensor, tests were conducted in a laboratory setting to mimic the actual movement on a bowling lane using the selected IMU sensor. The data was collected and compared against the Vicon motion capture camera system, which is regarded as the gold standard for video motion capture technology. Based on the data collected, it was validated that the ATF angle and wrist acceleration values recorded by the IMU sensor were relatively accurate compared to the data recorded by Vicon. The data recorded for the wrist velocity parameter showed a much larger discrepancy compared to Vicon data and is thus not an accurate indicator of an athlete's performance. Hence, the recommendation is to use the IMU sensor to measure the ATF angles and wrist acceleration values as a benchmark of the kinematic ability of the bowler. |
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Heng Kok Hui, John Gerard |
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Heng Kok Hui, John Gerard Lim, Matthew Jing Long |
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Final Year Project |
author |
Lim, Matthew Jing Long |
author_sort |
Lim, Matthew Jing Long |
title |
Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
title_short |
Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
title_full |
Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
title_fullStr |
Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
title_full_unstemmed |
Comparison and validation of sensors for 3D and 2D motion capture to measure 10-pin bowling specific kinematics |
title_sort |
comparison and validation of sensors for 3d and 2d motion capture to measure 10-pin bowling specific kinematics |
publisher |
Nanyang Technological University |
publishDate |
2023 |
url |
https://hdl.handle.net/10356/167234 |
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1772828946183749632 |