1. fNIRS Signal Classification Based on Deep Learning in Rock-Paper-Scissors Imagery Task
- Author
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Yuting Xia, Tengfei Ma, Xin Li, Chen Wentian, Sailing He, and Xinhua Zhu
- Subjects
Time series classification ,Technology ,Computer science ,QH301-705.5 ,Speech recognition ,QC1-999 ,fNIRS ,02 engineering and technology ,Task (project management) ,03 medical and health sciences ,0302 clinical medicine ,Signal classification ,Motor imagery ,General Materials Science ,Biology (General) ,BCI ,Instrumentation ,QD1-999 ,Brain–computer interface ,TSC ,Fluid Flow and Transfer Processes ,business.industry ,Process Chemistry and Technology ,Deep learning ,Physics ,General Engineering ,deep learning ,rock–paper–scissors ,021001 nanoscience & nanotechnology ,Engineering (General). Civil engineering (General) ,Computer Science Applications ,Chemistry ,Duration (music) ,Artificial intelligence ,TA1-2040 ,0210 nano-technology ,business ,030217 neurology & neurosurgery ,CNN - Abstract
To explore whether the brain contains pattern differences in the rock–paper–scissors (RPS) imagery task, this paper attempts to classify this task using fNIRS and deep learning. In this study, we designed an RPS task with a total duration of 25 min and 40 s, and recruited 22 volunteers for the experiment. We used the fNIRS acquisition device (FOIRE-3000) to record the cerebral neural activities of these participants in the RPS task. The time series classification (TSC) algorithm was introduced into the time-domain fNIRS signal classification. Experiments show that CNN-based TSC methods can achieve 97% accuracy in RPS classification. CNN-based TSC method is suitable for the classification of fNIRS signals in RPS motor imagery tasks, and may find new application directions for the development of brain–computer interfaces (BCI).
- Published
- 2021
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