Jasmine L. Mirdamadi

This study compares cortical responses to balance perturbations between modern dancers and nondancers, finding dancers have greater cortical sensitivity despite similar biomechanical responses.

The paper shows that in younger adults, the N1 amplitude from balance perturbations is mainly from a central cortical source, while latency differences suggest contributions from other brain regions.

The paper investigates how the brain updates hand position representation during visuo-proprioceptive conflicts and finds that primary somatosensory cortex (SI) mediates motor system updates through unisensory proprioceptive processing.

This study assesses the test-retest reliability of the N1 potential during balance perturbations, finding high reliability across sessions and individuals, suggesting its potential as a biomarker for balance function.

The paper investigates how cortical contributions to balance recovery increase with task difficulty using neuromechanical modeling of muscle activity and EEG data.

The paper investigates brain activity during whole-body motion perception in reactive balance, finding distinct cortical correlates for perception and motor function.

The paper investigates whether perceptual changes from visuo-proprioceptive misalignment affect motor cortex representations specifically or broadly, finding focal effects in both sensory and motor domains.

This study investigates how cerebellar and somatosensory cortex activity affects proprioceptive changes during motor skill learning using theta burst stimulation.