The Impact of Enriching Electroencephalogram in Spatial Metadata on Interpretability and Generalization Ability of Graph Neural Networks

This paper proposes a formalization of current approaches to processing electroencephalograms, as well as a generalization of the original problem of processing multidimensional time series in terms of graph neural networks. The proposed architecture exploits information about the recording device by encoding information about the relative position of the recording electrodes as a graph. The effectiveness of the method has been demonstrated in tasks of emotion recognition, as well as P300 impulse recognition. The model achieved outstanding results on the considered datasets using the same set of hyperparameters. The experiments conducted demonstrate the usefulness of graphs composed of metainformation, as well as the dependence of the structure of the optimal graph on the problem being solved. Potentially, this technique can be extended to other subject areas where additional information about the connectivity of multivariate time series channels is available.

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Publication Details

Journal
Pattern Recognition and Image Analysis
Published
2024-12-01
DOI
https://doi.org/10.1134/s1054661824701323
Primary Topic
EEG and Brain-Computer Interfaces
Type
article
Field-Weighted Citation Impact
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article

The Impact of Enriching Electroencephalogram in Spatial Metadata on Interpretability and Generalization Ability of Graph Neural Networks

Archil Maysuradze, L. S. Sidorov
Pattern Recognition and Image Analysis
EEG and Brain-Computer Interfaces
article

The Impact of Enriching Electroencephalogram in Spatial Metadata on Interpretability and Generalization Ability of Graph Neural Networks

Archil Maysuradze, L. S. Sidorov
article en

Abstract

This paper proposes a formalization of current approaches to processing electroencephalograms, as well as a generalization of the original problem of processing multidimensional time series in terms of graph neural networks. The proposed architecture exploits information about the recording device by encoding information about the relative position of the recording electrodes as a graph. The effectiveness of the method has been demonstrated in tasks of emotion recognition, as well as P300 impulse recognition. The model achieved outstanding results on the considered datasets using the same set of hyperparameters. The experiments conducted demonstrate the usefulness of graphs composed of metainformation, as well as the dependence of the structure of the optimal graph on the problem being solved. Potentially, this technique can be extended to other subject areas where additional information about the connectivity of multivariate time series channels is available.

Pattern Recognition and Image AnalysisVol. 34(4)
Lomonosov Moscow State University (RU)
Openalex Percentile: Top 72%
EEG and Brain-Computer Interfaces
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