TY - CHAP T1 - A motion simulation and biomechanical analysis of the shoulder joint using a whole human model A1 - Sen,Suddhajit A1 - Abboud,Rami A1 - Wang,Weijie A1 - Ming,Dong A1 - Wan,Baikun A1 - Liao,Yi A1 - Gong,Qiyong AU - Sen,Suddhajit AU - Abboud,Rami AU - Wang,Weijie AU - Ming,Dong AU - Wan,Baikun AU - Liao,Yi AU - Gong,Qiyong PB - IEEE Computer Society PY - 2011/1/1 Y1 - 2011/1/1 N2 - The analysis of movements and forces of human or animal subjects is useful in both the real and virtual worlds. We proposed the design of a computer model which simulates the movements at the shoulder joint for a specific subject and analyses the three-dimensional forces and torques produced at that joint during movement. The model was constructed using the mathematical dynamic modelling software (Madymo). Anthropometric data were collected from a healthy volunteer in the form of weight, height, limb lengths, and the centre of mass deduced. A group of reflective markers were attached to specific areas on the subject's body while he performed a group of precise movements, i.e. flexion/extension, adduction/abduction and rotation all at the shoulder. The marker data were collected using a motion capturing system. Shoulder joint angles were obtained using the in-house designed software, and then input into the computer model to simulate the subject's movements allowing analysis of the forces and torques. Results showed that the model successfully simulated the movements and predicted shoulder joint force and torque during movements, corroborating with the theory of biomechanics. Preliminary results are encouraging. Currently, the focus is on extending the application into the clinical practice, sports exercise and behavioural animation environments. © 2011 IEEE. AB - The analysis of movements and forces of human or animal subjects is useful in both the real and virtual worlds. We proposed the design of a computer model which simulates the movements at the shoulder joint for a specific subject and analyses the three-dimensional forces and torques produced at that joint during movement. The model was constructed using the mathematical dynamic modelling software (Madymo). Anthropometric data were collected from a healthy volunteer in the form of weight, height, limb lengths, and the centre of mass deduced. A group of reflective markers were attached to specific areas on the subject's body while he performed a group of precise movements, i.e. flexion/extension, adduction/abduction and rotation all at the shoulder. The marker data were collected using a motion capturing system. Shoulder joint angles were obtained using the in-house designed software, and then input into the computer model to simulate the subject's movements allowing analysis of the forces and torques. Results showed that the model successfully simulated the movements and predicted shoulder joint force and torque during movements, corroborating with the theory of biomechanics. Preliminary results are encouraging. Currently, the focus is on extending the application into the clinical practice, sports exercise and behavioural animation environments. © 2011 IEEE. KW - Motion simulation KW - Motion control KW - Motion capture and retargeting KW - Biomechanics KW - Medical simulation UR - http://www.scopus.com/inward/record.url?partnerID=yv4JPVwI&eid=2-s2.0-84855800637&md5=1c34d5b59ded30205a9741d28721c679 U2 - 10.1109/BMEI.2011.6098769 DO - 10.1109/BMEI.2011.6098769 M1 - Other chapter contribution SN - 9781424493524 VL - 4 BT - Proceedings - 2011 4th International Conference on Biomedical Engineering and Informatics, BMEI 2011 T2 - Proceedings - 2011 4th International Conference on Biomedical Engineering and Informatics, BMEI 2011 A2 - Wang,Lipo ED - Wang,Lipo SP - 2322 EP - 2326 ER -