Abstract
According to the theory of Matsuoka neural oscillators and with the consideration of the fact that the human upper arm mainly consists of six muscles, a new kind of central pattern generator (CPG) neural network consisting of six neurons is proposed to regulate the contraction of the upper arm muscles. To verify effectiveness of the proposed CPG network, an arm motion control model based on the CPG is established. By adjusting the CPG parameters, we obtain the neural responses of the network, the angles of joint and hand of the model with MATLAB. The simulation results agree with the results of crank rotation experiments designed by Ohta et al., showing that the arm motion control model based on a CPG network is reasonable and effective.
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Haken, H. Towards a unifying model of neural net activity in the visual cortex. Cognitive Neurodynamics, 1, 15–25 (2007)
Lipinski, J., Sandamirskaya, Y., and Schoner, G. Swing it to the left, swing it to the right: enacting flexible spatial language using a neurodynamic framework. Cognitive Neurodynamics, 3, 373–400 (2009)
Perez-Marcos, D., Sanchez-Vives, M. V., and Slater, M. Is my hand connected to my body? The impact of body continuity and arm alignment on the virtual hand illusion. Cognitive Neurodynamics, 6, 295–305 (2012)
Jeong, S., Arie, H., Lee, M., and Tani, J. Neuro-robotics study on integrative learning of proactive visual attention and motor behaviors. Cognitive Neurodynamics, 6, 43–59 (2012)
Kiguchi, K. and Hayashi, Y. An EMG-based control for an upper limb power-assist exoskeleton robot. IEEE Transactions on Systems, Man, and Cybernetics, Part B: Cybernetics, 42, 1064–1071 (2012)
Kimura, H., Fukuoka, Y., Hada, Y., and Takase, K. Adaptive dynamic walking of a quadruped robot on irregular terrain using a neural system model. Robotics Research, 6, 147–160 (2003)
Choi, C., Micera, S., Carpaneto, J., and Kim, J. Development and quantitative performance evaluation of a noninvasive EMG computer interface. IEEE Transactions on Biomedical Engineering, 56, 188–191 (2009)
Morasso, P. Spatial control of arm movements. Experimental Brain Research, 42, 223–227 (1981)
Flash, T. and Hogan, N. The coordination of arm movement: an experimentally confirmed mathematical model. The Journal of Neuroscience, 5, 1688–1703 (1985)
Uno, Y., Suzuki, Y., and Kawato, M. Minimum muscle-tension-change model which produces human arm movement. Proceedings of the 4th Symposium on Biological and Physiological Engineering, 1989, 299–302 (1989)
Ohta, K., Svinin, M. M., Luo, Z. W., Hosoe, S., and Laboissiere, R. Optimal trajectory formation of constrained human arm reaching movements. Biological Cybernetics, 91, 23–36 (2004)
Wu, J. and Wang, R. B. A new algorithm of the upper limb movement. Vibration and Shock, 9, 147–149 (2008)
Ruan, J., Gu, F., and Cai, Z. J. Method and Application of Neural Dynamics Model, Science Press, Beijing (2002)
Karni, A., Meyer, G., Rey-Hipolito, C., Jezzard, P., Adams, M. M., Turner, R., and Ungerleider, L. G. The acquisition of skilled motor performance: fast and slow experience-driven changes in primary motor cortex. Proceedings of the National Academy of Sciences of the United States of America, 95, 861–868 (1998)
Schweighofer, N., Spoelstra, J., Arbib, M. A., and Kawato, M. Role of the cerebellum in reaching movements in humans II: a neural model of the intermediate cerebellum. European Journal of Neuroscience, 10, 95–105 (1998)
Stiles, L. and Smith, P. F. The vestibular-basal ganglia connection: balancing motor control. Brain Research, 1597, 80–88 (2015)
Gu, F. J. and Liang, P. J. Neural Information Processing, Beijing Industrial University Press, Beijing (2007)
Kiehn, O. and Butt, S. J. B. Physiological, anatomical and genetic identification of CPG neurons in the developing mammalian spinal cord. Progress in Neurobiology, 70, 347–361 (2003)
Marder, E. and Bucher, D. Central pattern generators and the control of rhythmic movements. Current Biology, 11, 986–996 (2001)
Euler, C. V. Central pattern generation during breathing. Trends in Neurosciences, 3, 275–277 (1980)
Po, J. M., Kieser, J. A., Gallo, L. M., Tesenyi, A. J., Herbison, P., and Farella, M. Time-frequency analysis of chewing activity in the natural environment. Journal of Dental Research, 90, 1206–1210 (2011)
Zhang, D. G., Zhu, K. Y., and Zheng, H. Model the leg cycling movements with neural oscillator. Proceedings of the IEEE International Conference on Systems, Man and Cybernetics, 1, 740–744 (2004)
Lewis, M. A., Etienne-Cummings, R., Hartmann, M. J., Xu, Z. R., and Cohen, A. H. An in silicon central pattern generator: silicon oscillator, coupling, entrainment, and physical computation. Biological Cybernetics, 88, 137–151 (2003)
Lu, Q. and Tian, J. Synchronization and stochastic resonance of the small-world neural networks based on the CPG. Cognitive Neurodynamics, 8, 217–226 (2014)
Dong, W., Wang, R. B., and Zhang, Z. K. Exploring human rhythmic gait movement in the role of cerebral cortex signal. Applied Mathematics and Mechanics (English Edition), 32, 223–230 (2011) DOI 10.1007/s10483-011-1408-6
Lu, Q. Coupling relationship between the central pattern generator and the cerebral cortex with time delay. Cognitive Neurodynamics, 9, 423–436 (2015)
Matsuoka, K. Analysis of a neural oscillator. Biological Cybernetics, 104, 297–304 (2011)
Lu, Q., Li, W. F., Tian, J., and Zhang, X. X. Effects on hypothalamus when CPG is fed back to basal ganglia based on KIV model. Cognitive Neurodynamics, 9, 85–92 (2015)
Rigatos, G. Robust synchronization of coupled neural oscillators using the derivative-free nonlinear Kalman filter. Cognitive Neurodynamics, 8, 465–478 (2014)
Wang, W. and Wang, R. B. Control strategy of central pattern generator gait movement under condition of attention selection. Applied Mathematics and Mechanics (English Edition), 37, 957–966 (2016) DOI 10.1007/s10483-016-2096-9
Zhang, D. and Zhu, K. Computer simulation study on central pattern generator: from biology to engineering. International Journal of Neural System, 16, 405–422 (2006)
Matsuoka, K. Sustained oscillations generated by mutually inhibiting neurons with adaptation. Biological Cybernetics, 52, 367–376 (1985)
Kondo, T. and Ito, K. Periodic motion control by modulating CPG parameters based on timeseries recognition. European Conference on Artificial Life, 3630, 906–915 (2005)
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Project supported by the National Natural Science Foundation of China (Nos. 11232005 and 11472104)
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Zheng, Z., Wang, R. Arm motion control model based on central pattern generator. Appl. Math. Mech.-Engl. Ed. 38, 1247–1256 (2017). https://doi.org/10.1007/s10483-017-2240-8
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DOI: https://doi.org/10.1007/s10483-017-2240-8