Skip to main content

Get rid of the beat in mobile EEG applications: A framework towards automated cardiogenic artifact detection and removal in single-channel EEG

Publication ,  Journal Article
Chiu, N-T; Huwiler, S; Ferster, ML; Karlen, W; Wu, H-T; Lustenberger, C
February 12, 2021

Brain activity recordings outside clinical or laboratory settings using mobile EEG systems have recently gained popular interest allowing for realistic long-term monitoring and eventually leading to identification of possible biomarkers for diseases. The less obtrusive, minimized systems (e.g. single-channel EEG, no ECG reference) have the drawback of artifact contamination with varying intensity that are particularly difficult to identify and remove. We developed brMEGA, the first algorithm for automated detection and removal of cardiogenic artifacts using non-linear time-frequency analysis and machine learning to (1) detect whether and where cardiogenic artifacts exist, and (2) remove those artifacts. We compare our algorithm against visual artifact identification and a previously established approach and validate it in one real and semi-real datasets. We demonstrated that brMEGA successfully identifies and substantially removes cardiogenic artifacts in single-channel EEG recordings. Moreover, recovery of cardiogenic artifacts gives the opportunity for future extraction of heart rate features without ECG measurement.

Duke Scholars

Altmetric Attention Stats
Dimensions Citation Stats

DOI

Publication Date

February 12, 2021
 

Citation

APA
Chicago
ICMJE
MLA
NLM
Chiu, N.-T., Huwiler, S., Ferster, M. L., Karlen, W., Wu, H.-T., & Lustenberger, C. (2021). Get rid of the beat in mobile EEG applications: A framework towards automated cardiogenic artifact detection and removal in single-channel EEG. https://doi.org/10.1101/2021.02.09.430184
Chiu, Neng-Tai, Stephanie Huwiler, M Laura Ferster, Walter Karlen, Hau-Tieng Wu, and Caroline Lustenberger. “Get rid of the beat in mobile EEG applications: A framework towards automated cardiogenic artifact detection and removal in single-channel EEG,” February 12, 2021. https://doi.org/10.1101/2021.02.09.430184.

DOI

Publication Date

February 12, 2021