/
/
Recording Human Electrocorticographic (ECoG) Signals for Neuroscientific Research and Real-time Functional Cortical Mapping
A subscription to JoVE is required to view this content. Sign in or start your free trial.
1Wadsworth Center,New York State Department of Health, 2Department of Neurology,Albany Medical College, 3Department of Neurosurgery,Albany Medical College, 4Department of Neurosurgery,Washington University, 5Department of Biomed. Eng.,Rensselaer Polytechnic Institute, 6Department of Biomed. Sci.,State University of New York at Albany, 7Department of Elec. and Comp. Eng.,University of Texas at El Paso
Chapters
- 00:05Title
- 03:20Electrode Localization
- 06:18Experimental Session Set-up
- 08:45Example Experimental Session: SIGFRIED Clinical Mapping with BCI2000
- 11:16Results: Mapping Session in One Patient
- 12:05Conclusion
We present a method for collecting electrocorticographic signals for research purposes from humans who are undergoing invasive epilepsy monitoring. We show how to use the BCI2000 software platform for data collection, signal processing and stimulus presentation. Specifically, we demonstrate SIGFRIED, a BCI2000-based tool for real-time functional brain mapping.
Tags
HumanECoG SignalsNeuroscientific ResearchReal-time Functional Cortical MappingNeuroimaging StudiesCognitive ProcessesSensory ProcessesMotor ProcessesNoninvasive TechniquesElectroencephalographyMagnetoencephalographyFunctional Magnetic-resonance ImagingTemporal ResolutionSpatial ResolutionSignal-to-noise RatioElectrocorticographyBrain SignalsArtifactsHigh-frequency SensitivityElectrical Brain SignalsElectrodesSubdural ImplantationTask-related ActivityMotor ExecutionPlanningAuditory ProcessingVisual-spatial AttentionGamma ActivityLocal Cortical FunctionFunctional Connectivity
