结合视觉和触觉反馈的手部感觉康复系统

Yutaka Hagiwara, K. Takeda, Shin-ichiroh Yamamoto, Yukio Saito
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摘要

在这项研究中,我们一直在开发一种康复系统,该系统结合了运动和感觉功能恢复装置和手部感觉测量装置。这些装置是专门为瘫痪病人开发的。该康复系统被命名为HSRS(手部感觉康复系统),它由一个手部感觉功能训练装置、一台控制该装置的计算机和一个外部显示器组成,显示器显示从传感器获得的数据。该训练装置能够通过抓住设备探头对用户的手施加连续的机械刺激。在显示器上显示自制的图形用户界面。操作员指示用户将目标值与训练中的测量值相匹配。当用户操作开关时,设备测量与探头接触的点。我们用这些装置做了两个实验。一是刺激评价实验。在这个实验中,给人手三个频率(30 [Hz], 60[Hz], 100[Hz]),我们验证了哪个频率最有效。我们采用滑动卡尺和感觉功能测量装置,评估每个健康受试者在使用训练装置前后的感觉程度差异。因此,我们发现60赫兹是最有效的频率。在第二个实验中,我们让受试者跟随GUI的目标值。在本实验中,我们考察了感觉功能和运动功能之间的关系,并探讨了训练瘫痪患者时的最佳评价参数。因此,在比较运动体验时,我们并没有得到不同的结果。而夹持加速和减速时间的剩余量与其他项目的差异特别大。此外,在感觉功能测量实验中,对比感觉良好和感觉不佳的被试,感觉不佳的被试与目标值的差异有较大的趋势。我们证实了测量装置的实用性以及运动和感觉功能之间的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hand Sensory Rehabilitation System Which Incorporated Visual and Tactile Feedback
In this study, we have been developing a rehabilitation system that combining a motor and sensory function recovery device and a measuring device for a hand sensory. These devices are purposely developed for paralyzed patients. The rehabilitation system was named HSRS (Hand Sensory Rehabilitation system) and it’s consists of a training device hand sensory function, a computer to control the device, and an external monitor displays an obtained data from sensors. The training device is able to applycontinuous mechanical stimulation to the hand of a user by grasping the device probe. On the monitor, the self-made Graphical User Interface (GUI) is displayed. An operator instructs the user to match the target value to the measured value in the training. When the user operates the switches, and the device measures the point that contacted with the probe. We did two experiments by using these devices. One is stimulus evaluation experiment. In this experiment, three frequencies (30 [Hz], 60[Hz], 100[Hz]) were given to the human hand and we verified which frequency was most effective. Using a slide caliper and the device to measure sensory function, we evaluated the difference in sensory degree of each healthy subject between before and after using the training device. As a result, we found 60[Hz] is the most effective frequency. In the second experiment, we let a subject follow a target value of GUI. In this experiment, we examined the relation between the sensory function and the motor function and investigated the best evaluation parameter when training the paralyzed patient. As a result, we didn’t get difference in the results when comparing in sports experience. However, we got a particularly big difference of the magnitude of the residual during accelerated and deceleration time of the gripping with other items. Moreover, when comparing those who are good and not good sensory in sensory function measurement experiments, there was a tendency that the subjects with not good sensory have the bigger difference with the target value. We confirmed the utility of the measuring devise and the relationship between motor and sensory function.
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