Hong Lin
University of Houston-Downtown, USA
Posters & Accepted Abstracts: J Biom Biostat
Electroencephalographic (EEG) data modeling is useful for developing applications in the areas of healthcare, as well as in the design of brain-computer interface (BCI). In this study, we aim to build an efficient self-adjusting brain wave modeling system that can seamlessly capture and analyze EEG brainwave data using various custom developed tools and off the shelf software and hardware components. The platform provides user friendly interface with secure data storage and analytics capabilities for wave analysis, statistical analysis, and categorical classification using a number of well-established machine learning algorithms. We also present a systematic method to understand how the variation of raw data sets used in training models affects the accuracy of machine learning algorithms, and then analyze the performance of machine learning algorithms under various computational implementations. Additionally, we compared this finding with the efficiency of common machine learning algorithms on normalized mean data sets. Our results strongly indicate that Random Forest algorithm yields the highest accuracy for the both raw and normalized mean data sets. The data analysis result shows the distinctive pattern of delta and beta waves during active and idle brain states. Overall, the study describes a successful built of an incorporated data analysis platform, and provides preliminary insights into the performance of common machine learning algorithms on the brain wave (EEG) data sets.
Email: linh@uhd.edu
Journal of Biometrics & Biostatistics received 3496 citations as per Google Scholar report