Gerald Eli Loeb

This study investigates subcortical control of reaching in humans using a visuomotor task, finding coordinated muscle responses that suggest subcortical systems can compute musculoskeletal dynamics for reaching.

This study investigates neural control signals during reaching by isolating express and voluntary responses, revealing alternating excitation and inhibition in muscle activity and corticospinal excitability.

The paper investigates the origin of rapid corticospinal excitability changes during visually guided reaching and finds subcortical, not cortical, modulation of motor evoked potentials.

The paper shows that symbolic cues modulate express visuomotor responses in human arm muscles, suggesting motor plan-level modulation rather than early visuospatial processing.

The paper develops an artificial organism to test if spinal cord connectivity patterns can emerge from learning rather than preprogramming, finding that self-organization can produce functional neural circuits.

The paper investigates how symbolic and barely detectable cues modulate express visuomotor responses, showing both top-down and bottom-up influences on a subcortical network.

The paper introduces a non-spiking neuron model with dynamic leak to assess stability in recurrent networks, finding it reduces spurious high-frequency noise and scales with network size.

This study investigates how temporal predictability affects express visuomotor responses, finding that predictable target timing enhances the frequency and strength of stimulus-locked responses.