Embodying rather than encoding: Towards developing a source-filter theory for undulation gait generation

Longchuan Li , Shugen Ma , Isao Tokuda , Zaiyang Liu , Zhenxuan Ma , Yang Tian , Shuai Kang
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Abstract

Biological undulation enables legless creatures to move naturally, and robustly in various environments. Consequently, many kinds of undulating robots have been developed. However, the fundamental mechanism of biological undulation gait generation has not yet been well explained, which hinders deepening the investigation and optimization of these robots. Towards developing a theory for explaining this biological behavior, which will further guide the design of artificial undulation systems, we propose a hypothesis based on both biological findings and previous robotics studies. To verify the hypothesis, we investigate embodied intelligence of undulation locomotion via a mechanical system. Through experimental study, we observe the phenomenon that undulation gait is a production of the source, which is the torque inputs, and the filter, which is the natural dynamics of the system. We further derive a general mathematical model and conduct morphological computation accordingly. From a simple model to a complicated system, our work explores the principles of undulation gait generation. Our findings significantly simplify the control system design of artificial undulating systems.

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体现而非编码:发展起伏步态生成的源过滤器理论
生物的起伏使无腿生物能够在各种环境中自然、稳健地移动。因此,人们开发了多种起伏机器人。然而,生物起伏步态产生的基本机制尚未得到很好的解释,这阻碍了对这些机器人的深入研究和优化。为了建立解释这种生物行为的理论,进一步指导人工起伏系统的设计,我们在生物学研究成果和以往机器人研究的基础上提出了一个假设。为了验证这一假设,我们通过机械系统研究了起伏运动的智能体现。通过实验研究,我们观察到这样一种现象:起伏步态是扭矩输入源和系统自然动态滤波器的产物。我们进一步推导出了一个通用数学模型,并进行了相应的形态计算。从简单的模型到复杂的系统,我们的工作探索了起伏步态生成的原理。我们的研究成果大大简化了人工起伏系统的控制系统设计。
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