Enhancement of cortical activation for motor imagery during BCI-FES training
Zhongpeng Wang, Long Chen, Weibo Yi, Bin Gu, Shuang Liu, Xingwei An, Minpeng Xu, Hongzhi Qi, Feng He, Baikun Wan, Dong Ming
Abstract
Zhongpeng Wang, Long Chen, Weibo Yi, Bin Gu, Shuang Liu, Xingwei An, Minpeng Xu, Hongzhi Qi, Feng He, Baikun Wan, Dong Ming
Abstract
Brain-computer Interfaces (BCIs) provide a direct pathway between the brain and the outward environment. Specifically, motor imagery (MI)-based BCI controlling functional electric stimulation (FES) is a promising approach for disabled patients with intact mind to restore or rehabilitate their motor functions. This study probed for the improvement of cortical activation for motor imagery during the closed-loop BCI-FES training. We used electroencephalography (EEG) and functional near-infrared spectroscopy (fNIRS) to inspect the cortical activation for four different training strategies, i.e. MI-BCI-FES, MI-FES, MI and FES. Compared with the other three training conditions, the MI-BCI-FES could achieve stronger cortical activation viewing from the event-related desynchronization (ERD) and the blood oxygen response. The results demonstrate that the closed-loop MI training using BCI-FES can prospectively increase the cortical activation of motor cortical areas.
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Brain-computer Interfaces (BCIs) provide a direct pathway between the brain and the outward environment. Specifically, motor imagery (MI)-based BCI controlling functional electric stimulation (FES) is a promising approach for disabled patients with intact mind to restore or rehabilitate their motor functions. This study probed for the improvement of cortical activation for motor imagery during the closed-loop BCI-FES training. We used electroencephalography (EEG) and functional near-infrared spectroscopy (fNIRS) to inspect the cortical activation for four different training strategies, i.e. MI-BCI-FES, MI-FES, MI and FES. Compared with the other three training conditions, the MI-BCI-FES could achieve stronger cortical activation viewing from the event-related desynchronization (ERD) and the blood oxygen response. The results demonstrate that the closed-loop MI training using BCI-FES can prospectively increase the cortical activation of motor cortical areas.
Key concepts: Brain–computer interface, Functional electrical stimulation, Motor imagery, Electroencephalography, Computer science, Neuroscience, Physical medicine and rehabilitation, Psychology