Simulation Research of Fuzzy Self-Adaptive PID Control for Fracture Trauma Section Stress

Article Preview

Abstract:

The stress response of fracture trauma section has certain inertia and pure lag, conventional PID control can not obtain optimal stress control accuracy. In allusion to this problem, this paper proposes using fuzzy adaptive PID control, aims at the optimal physiological stimulation stress (Jorgensen curve) in the course of fracture healing, conducts real-time control to the fracture trauma section stress. According to the established fracture trauma system model, the fuzzy self-adaptive PID controller has been designed, and conducts simulation research on real-time stress control in the Matlab/Simulink simulation environment. The simulation results show that the stress control accuracy of fuzzy self-adaptive PID control is obviously better than that of the classical PID control and classical fuzzy control, which can effectively control the stress of trauma section in fracture healing, to promote bone repair and bone growth towards the optimal level, and then to ensure the speed and quality of fracture healing.

You might also be interested in these eBooks

Info:

Periodical:

Advanced Materials Research (Volumes 317-319)

Pages:

1205-1210

Citation:

Online since:

August 2011

Export:

Price:

Permissions CCC:

Permissions PLS:

Сopyright:

© 2011 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

[1] He Meng, Zhihua Gu: Orthopedics Biomechanics (People's Medical Publishing House, Beijing 2000). (In Chinese)

Google Scholar

[2] Zhihua Gu, Ruiting Gao: Foundation of Orthopaedic Biomechanical (Tianjin University Press, Tianjin 1990). (In Chinese)

Google Scholar

[3] He Meng: Fracture Restoration Fixator Therapy in China (Joint Publishing House of Beijing Medical College and Beijing Union Medical College, Beijing 1993). (In Chinese)

DOI: 10.18240/ijo.2022.08.06

Google Scholar

[4] He Meng: Chinese Bone Fracture External Fixation Expo (Huaxia Publishing House, Beijing 1991). (In Chinese)

Google Scholar

[5] Xishi Wang: Journal of Medical Biomechanics Vol. (2005), p.25 (In Chinese)

Google Scholar

[6] Yiyi Zhang: Advances in Mechanics Vol.30 (2000), p.67 (In Chinese)

Google Scholar

[7] Fuhui Dong: China Journal of Orthopaedics and Traumatology Vol.14 (2001), p.9 (In Chinese)

Google Scholar

[8] Xuyi Chen, Xizheng Zhang: Clinical Biomechanics Vol.23 (2008), p.S88

Google Scholar

[9] Garrett Ryan, Abhay Pandit: Clinical Biomechanics Vol. 23 (2008), p.859

Google Scholar

[10] Antonio Herrera: Journal of Biomechanics Vol.40 (2007), p.3615

Google Scholar

[11] John Currey: Journal of Theoretical Biology Vol.231 (2004), p.569

Google Scholar

[12] A.W.L. Turner, R.M. Gillies: Journal of Orthopaedic Research Vol.23 (2005), p.705

Google Scholar

[13] Zhenshun Wu: Journal of Harbin Institute of Technology Vol.36 (2004), p.22 (In Chinese)

Google Scholar

[14] Xiaofeng Liu: Journal of Jilin University Vol.41 (2011), p.16 (In Chinese)

Google Scholar

[15] Minghui huang: Control Engineering of China Vol.18 (2011), p.97 (In Chinese)

Google Scholar

[16] Peifeng Niu: Journal of Chinese Society of Power Engineering Vol.31 (2011), p.46 (In Chinese)

Google Scholar