Marc Vander Ghinst

The paper analyzes brain-body coupling in aging and stroke using nonlinear dynamics and state-space analysis to better understand balance impairment.

This study investigates how stroke affects cortical involvement in balance control by measuring corticokinematic coherence in stroke survivors and healthy controls.

This study examines the relationship between sensory acuity and dynamic postural control in children, finding significant correlations between balance scores and visual and proprioceptive tests.

The paper investigates how cortical oscillations track postural sways during standing balance, finding corticokinematic coherence (CKC) at 1-6 Hz that reflects cortical monitoring and control of balance.

The paper investigates the role of bursting and non-bursting neural activity in functional brain networks, demonstrating that correcting for power bias reveals the importance of brain rhythms in network connectivity.

This study shows that school-aged children have reduced cortical tracking of linguistic units in speech, especially in noisy environments, compared to adults.

The paper investigates cortico-muscular coupling during steady muscle force maintenance, finding temporally stable beta oscillations and their behavioral relevance.

This study investigates whether abnormal cortical tracking of speech in dyslexia is a cause or consequence of the disorder and how it is affected by reading experience and noise.

The paper examines how cortical oscillations in children and adults track speech structures in noise, showing that prosodic cue maintenance matures earlier than syllabic cue maintenance in noisy environments.

This study examines age-related changes in resting-state brain function from childhood to late adulthood using magnetoencephalography, finding increased integration and stability in development and reduced integration in aging.

The paper examines how speech perception in noise relates to reading strategies in children, finding distinct neural correlates for lexical and sublexical reading.

The paper identifies two modes of neural communication in the human brain—extrinsic coupling via phase synchronization and intrinsic integration via amplitude correlation—during rest and tasks.