This work proposes a wearable system for the specific application of drowsiness detection in activities of daily living. The system is based on a new family of electrostatic sensors (Qvar) supported by smart algorithms. It records the electroencephalogram (EEG) from a single-channel and extracts a number of features from the spectral bands of the EEG signal, in addition to entropies. An innovative approach based on the emerging brain-inspired Hyperdimensional Computing paradigm is used and compared with two conventional Machine Learning algorithms. The algorithms are all trained on a public dataset and tested on our data recorded by the Qvar system. As a result, the new algorithm outperforms consistently the conventional ones, while being computationally more efficient and highly parallel. Thanks to the single channel implementation and the low-power consumption, the Quar system candidates for ubiquitous real-time EEG monitoring, ensuring minimal invasiveness and long-time autonomy, and paves the way to facilitate extensive screening processes, and expand the range of applications for EEG technology.
A novel machine learning framework for drowsiness detection using an electrostatic wearable sensor and hyperdimensional computing / Ferri, L.; Di Cotrone, M. G. P.; Angioli, M.; Balsi, M.; Suppa, A.; Davi, L.; Picozzi, N.; Gumiero, A.; Torre, L. D.; Irrera, F.. - (2025), pp. 254-258. ( 8th IEEE International Workshop on Metrology for Industry 4.0 and IoT, MetroInd4.0 and IoT 2025 esp ) [10.1109/MetroInd4.0IoT66048.2025.11121951].
A novel machine learning framework for drowsiness detection using an electrostatic wearable sensor and hyperdimensional computing
Di Cotrone M. G. P.;Angioli M.;Balsi M.;Suppa A.;Picozzi N.;Irrera F.
2025
Abstract
This work proposes a wearable system for the specific application of drowsiness detection in activities of daily living. The system is based on a new family of electrostatic sensors (Qvar) supported by smart algorithms. It records the electroencephalogram (EEG) from a single-channel and extracts a number of features from the spectral bands of the EEG signal, in addition to entropies. An innovative approach based on the emerging brain-inspired Hyperdimensional Computing paradigm is used and compared with two conventional Machine Learning algorithms. The algorithms are all trained on a public dataset and tested on our data recorded by the Qvar system. As a result, the new algorithm outperforms consistently the conventional ones, while being computationally more efficient and highly parallel. Thanks to the single channel implementation and the low-power consumption, the Quar system candidates for ubiquitous real-time EEG monitoring, ensuring minimal invasiveness and long-time autonomy, and paves the way to facilitate extensive screening processes, and expand the range of applications for EEG technology.| File | Dimensione | Formato | |
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