3260 papers • 126 benchmarks • 313 datasets
Seizure Detection is a binary supervised classification problem with the aim of classifying between seizure and non-seizure states of a patient. Source: ResOT: Resource-Efficient Oblique Trees for Neural Signal Classification
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Fulmine, a system-on-chip (SoC) based on a tightly-coupled multi-core cluster augmented with specialized blocks for compute-intensive data processing and encryption functions, supporting software programmability for regular computing tasks is proposed.
SeizureNet, a deep learning framework which learns multi-spectral feature embeddings using an ensemble architecture for cross-patient seizure type classification, is presented and shown to improve the accuracy of smaller networks through knowledge distillation for applications with low-memory constraints.
The WaveForm DataBase (WFDB) Toolbox for MATLAB/Octave enables integrated access to PhysioNet’s software and databases and should easily be able to reproduce, validate, and compare results published based on Physio net's software and database.
This work proposes a novel Video-based Seizure detection model via a skeleton-based spatiotemporal Vision Graph neural network (VSViG), which outperforms previous state-of-the-art action recognition models on collected patients' video data with higher accuracy, lower FLOPs, and smaller model size.
The proposed approach exceeds significantly previous results obtained on cross-patient classifiers both in terms of sensitivity and false positive rate and proves to be robust to missing channel and variable electrode montage.
A novel change detection framework based on neural networks and CCMs, which takes into account the non-Euclidean nature of graphs is introduced, and the proposed methods are able to detect even small changes in a graph-generating process, consistently outperforming approaches based on Euclidean embeddings.
Accurate classification of seizure types plays a crucial role in the treatment and disease management of epileptic patients. Epileptic seizure types not only impact the choice of drugs but also the range of activities a patient can safely engage in. With recent advances being made towards artificial intelligence enabled automatic seizure detection, the next frontier is the automatic classification of seizure types. On that note, in this paper, we explore the application of machine learning algorithms for multiclass seizure type classification. We used the recently released TUH EEG seizure corpus (v1.4.0 and v1.5.2) and conducted a thorough search space exploration to evaluate the performance of a combination of various preprocessing techniques, machine learning algorithms, and corresponding hyperparameters on this task. We show that our algorithms can reach a weighted F1 score of up to 0.901 for seizure-wise cross validation and 0.561 for patient-wise cross validation thereby setting a benchmark for scalp EEG based multi-class seizure type classification.
This work generates synthetic seizure-like brain electrical activities, i.e., EEG signals, that can be used to train seizure detection algorithms, alleviating the need for recorded data.
A robust and explainable epileptic seizure detection model that effectively learns from seizure states while eliminates the inter-patient noises is proposed and an attention mechanism to automatically learn the importance of each EEG channels in the seizure diagnosis procedure is developed.
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