Grasp Force Estimation from HD-EMG Recordings with Channel Selection Using Elastic Nets: Preliminary Study

Itzel Jared Rodríguez Martínez, F. Clemente, Gunter Kanitz, A. Mannini, A. Sabatini, C. Cipriani
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引用次数: 3

Abstract

Ahstract- The force applied with a prosthetic device is fundamental for the correct handling of objects in daily tasks. However, it is also a factor that normally gets relegated to a secondary plane, as researchers mainly focus on decoding the users intent in terms of movements to be performed. Continuous estimates of the grasp force from the electromyographic (EMG) signals were proposed in the past. As motor actions are preplanned in humans, we hypothesized that it would be possible to decode the intended grasp force from the transient state of the EMG signal. We tested this hypothesis by using features extracted from surface HD-EMG recordings from forearm muscles, classified using artificial neural networks. Data from 6 able-bodied subjects were collected. They were trained and tested at segments of 120 ms with 20 ms overlap, starting 1 s before and ending 0.5 s after the detection of the onset with different subsets of channels. The results obtained showed that the transient phase contains information about the target grasp force, achieving predictions of 2.62 % MVC average absolute errors within 430 ms from the onset of the EMG.
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利用弹性网进行通道选择的HD-EMG记录抓取力估计:初步研究
摘要-施加在假肢装置上的力是在日常任务中正确处理物体的基础。然而,这也是一个通常被降级到次要层面的因素,因为研究人员主要关注的是解码用户要执行的动作的意图。过去提出了从肌电图(EMG)信号中连续估计抓取力的方法。由于人类的运动动作是预先计划好的,我们假设有可能从肌电图信号的瞬态中解码预期的握力。我们通过使用从前臂肌肉的表面HD-EMG记录中提取的特征来验证这一假设,并使用人工神经网络进行分类。收集了6名健全受试者的数据。在120 ms重叠20 ms的片段上进行训练和测试,在检测不同通道子集的起始时间前1 s开始,后0.5 s结束。结果表明,瞬态相位包含目标抓握力的信息,在肌电开始后的430 ms内实现了2.62%的MVC平均绝对误差预测。
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