Abstract
Early human motor development has the nature of spontaneous exploration and boot-strap learning, leading to open-ended acquisition of versatile flexible motor skills. Since dexterous motor skills often exploit body-environment dynamics, we formulate the developmental principle as the spontaneous exploration of consistent dynamical patterns of the neural-body-environment system. We propose that partially ordered dynamical patterns emergent from chaotic oscillators coupled through embodiment serve as the core driving mechanism of such exploration. A model of neuro-musculo-skeletal system is constructed capturing essential features of biological systems. It consists of a skeleton, muscles, spindles, tendon organs, spinal circuits, medullar circuits, and a basic cortical model. Models of self-organizing cortical areas for primary somatosensory and motor areas are introduced. A human infant model is constructed and put through preliminary experiments. Some meaningful motor behavior emerged including rolling over and crawling-like motion. The results show the possibility that a rich variety of meaningful behavior can be discovered and acquired by the neural-body dynamics without pre-defined coordinated control circuits.
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CITATION STYLE
Kuniyoshi, Y., Sangawa, S., Tsukahara, Y., Suzuki, S., & Mori, H. (2010). A Constructivist Approach to the Principles of Emergence of Intelligence from Humanoid Embodiment. Journal of the Robotics Society of Japan, 28(4), 415–434. https://doi.org/10.7210/jrsj.28.415
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