Neural Correlates of Self-Motion

I have extended my work on self-motion perception to include Electroencephalography(EEG) to investigate the neural process involved in dual-tasking such as walking and performing a task and cortical processing of vestibular signals. This new research area is known as mobile brain imaging (MoBI).

Selected References

B. Malcolm, J. J. Foxe, J. S. Butler, Wenzhu B. Mowrey, S. Molholom, P. De Sanctis, (2017) "Long-term test-retest reliability of event-related potential (ERP) recordings during treadmill walking using the mobile brain/body imaging (MoBI) approach" Brain Research

B. Malcolm, J. J. Foxe, J. S. Butler, P. De Sanctis, (2015) "The aging brain shows less flexible reallocation of processing during dual-task walking: A Mobile Brain-Body Imaging (MOBI) Study" Neuroimage

P. De Sanctis, J. S. Butler^*, F. Green, A. C. Snyder, J. J. Foxe, (2012) "Mobile Brain/Body Imaging (MoBI): High-denisty electrical mapping of inhibitory processes during walking." IEEE Engineering in Medicine and Biology Society, San Diego.

H. Nolan, J. S. Butler^*, R. Whelan, J. J. Foxe, H. H. Bülthoff, R B. Reilly, (2012) "Detecting Changes in Self-motion Heading: A High Density Electrophysiological Measure of Vestibular Processing." Experimental Brain Research, 219(1):1-11

H. Nolan R. Whelan R. Reilly, H. H. Bülthoff, J. S. Butler, (2009) " Acquisition of Human EEG Data during Linear Self-Motion on a Stewart Platform", IEEE Neural Engineering; 585-588.

Collaborators

• Heinrich Bulthoff (Max Planck Institute)
• Jennifer Campos (Toronto Rehabilitation)
• Pierfilippo DeSanctis (Albert Einstein College of Medicine)
• John Foxe (University of Rochester/Albert Einstein College of Medicine)
• Richard Reilly (Trinity College Dublin)