EEGNET

EEGNET analyzes Magneto/Electroencephalography (M/EEG) data to compute functional connectivity and graph-theoretical measures of cortical and scalp-level brain networks.


Key Features:

  • Preprocessing: Performs essential preprocessing of M/EEG signals to prepare data for subsequent analysis.
  • Inverse Problem Solution: Solves the EEG/MEG inverse problem to localize and reconstruct cortical sources from scalp recordings.
  • Functional Connectivity Computation: Computes functional connectivity among signals recorded at surface electrodes or among reconstructed cortical sources.
  • Graph Theory Analysis: Computes graph-theoretical network measures to quantify network properties.
  • Network Visualization: Produces visualizations of functional brain networks and associated graph metrics.

Scientific Applications:

  • Connectome Dynamics: Investigating large-scale connectome dynamics and the spatial and temporal organization of brain networks using M/EEG.
  • Source-Level Network Analysis: Analyzing functional connectivity and network topology at reconstructed cortical source level for localization studies.
  • Scalp-Level Network Analysis: Studying functional interactions and network measures directly at scalp electrode locations in sensor-space analyses.
  • Graph-Theoretical Characterization: Characterizing network topology and deriving network metrics for neuroscience research.

Methodology:

Implemented in MATLAB; performs signal preprocessing, solves the inverse problem to reconstruct cortical sources, computes functional connectivity among electrodes or reconstructed sources, applies graph-theoretical measures, and generates network visualizations.

Topics

Details

License:
CECILL-1.0
Tool Type:
desktop application
Operating Systems:
Linux, Windows, Mac
Programming Languages:
MATLAB
Added:
10/11/2018
Last Updated:
12/10/2018

Operations

Publications

Hassan M, Shamas M, Khalil M, El Falou W, Wendling F. EEGNET: An Open Source Tool for Analyzing and Visualizing M/EEG Connectome. PLOS ONE. 2015;10(9):e0138297. doi:10.1371/journal.pone.0138297. PMID:26379232. PMCID:PMC4574940.

Documentation