Rhythmic body movement analysis for robot-based music therapy

Yi-Hsiang Ma, Jia-Yeu Lin, S. Cosentino, A. Takanishi
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引用次数: 2

Abstract

The ability to correctly perceive time and extract accurate timing information is crucial during social interaction. In fact, several activities during social interaction, such as appropriate feedback, turn-taking, coordination with peers, and even empathy and engagement exhibition directly depend on it. One of the aspects of cognitive malfunctioning in children with Autistic Spectrum Disorders is time perception deficit. Learning to pay attention to and correctly assess timing is thus a critical first step to improve social skills for children with Autism. In this paper, we present a novel sensing system and algorithm for estimating a subject's rhythmic motion timing from visual information using Recurrent Neural Network (RNN) coupled with FFT. This system will enable a robot saxophonist to estimate the rhythmic period from a child's motion during a robot-based music therapy session. Fast-Fourier- Transform (FFT) is an algorithm widely applied in rhythmic body movement detection, due to advantages such low computation and easy integration. However, long transient time delay is a critical limitation, reducing the correct motion timing estimation during period transitions. The novel system presented in this article is shown to significantly reduce transient time delay. The results of both a simulation and an evaluation experiment show that, compared with FFT processing alone, this algorithm gives a better performance due to its smaller average offset error and shorter transient time delay, allowing a more precise assessment of the child's synchronization response.
基于机器人的音乐治疗的节奏性肢体运动分析
在社会交往中,正确感知时间和提取准确时间信息的能力是至关重要的。事实上,社会交往中的一些活动,如适当的反馈,轮流,与同伴的协调,甚至移情和参与展示,都直接依赖于它。自闭症谱系障碍儿童认知功能障碍的一个方面是时间感知缺陷。因此,学会注意并正确评估时机是提高自闭症儿童社交技能的关键第一步。本文提出了一种基于循环神经网络(RNN)与FFT相结合的视觉感知系统和算法,用于从视觉信息中估计受试者的节奏运动时间。该系统将使机器人萨克斯管演奏家能够在机器人音乐治疗期间从儿童的动作中估计节奏周期。快速傅里叶变换(Fast-Fourier Transform, FFT)算法具有计算量小、易于集成等优点,在韵律体运动检测中得到了广泛的应用。然而,长瞬态时间延迟是一个关键的限制,降低了正确的运动时间估计在周期转换。本文提出的新系统可以显著降低暂态时延。仿真和评估实验结果表明,与单纯FFT处理相比,该算法具有更小的平均偏移误差和更短的瞬态时间延迟,能够更精确地评估儿童的同步响应,从而获得更好的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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