SNST recovers consistent amplitude-envelope and slow-rhythm-gated coupling in motor-imagery EEG that phase-lag indices do not detect under matched FDR control.
Electroencephalography source connectivity: toward high time/space resolution brain networks
1 Pith paper cite this work, alongside 14 external citations. Polarity classification is still indexing.
abstract
The human brain is a large-scale network which function depends on dynamic interactions between spatially-distributed regions. In the rapidly-evolving field of network neuroscience, two yet unresolved challenges are potential breakthroughs. First, functional brain networks should be estimated from noninvasive and easy to use neuroimaging techniques. Second, the time/space resolution of these techniques should be high enough to assess the dynamics of identified networks. Emerging evidence suggests that Electroencephalography (EEG) source connectivity method may offer solutions to both issues provided that scalp EEG signals are appropriately processed. Therefore, the performance of EEG source connectivity method strongly depends on signal processing (SP) that involves various methods such as preprocessing techniques, inverse solutions, statistical couplings between signals and network science. The main objective of this tutorial-like review is to provide an overview on EEG source connectivity. We describe the major contributions that the SP community brought to this research field. We emphasize the methodological issues that need to be carefully addressed to obtain relevant results and we stress the current limitations that need further investigation. We also report results obtained in concrete applications, in both normal and pathological brain states. Future directions in term of signal processing methods and applications are eventually provided
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q-bio.NC 1years
2026 1verdicts
CONDITIONAL 1representative citing papers
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Spatial Neighboring Scattering Transform: A Cross-Channel Amplitude Coupling Measure for EEG Connectivity
SNST recovers consistent amplitude-envelope and slow-rhythm-gated coupling in motor-imagery EEG that phase-lag indices do not detect under matched FDR control.