J. Ryan Morehead

The paper investigates strategic behavior in sensorimotor adaptation tasks and finds that participants often experience an 'Aha!' moment leading to an abrupt shift in strategy.

The paper shows motor biases result from a misalignment between visual and proprioceptive reference frames, not from planning errors or biomechanical constraints.

The paper investigates visuomotor memory by testing transfer across contexts with opposing visual motion, finding that motor memory is tied to planned hand displacement rather than visual feedback.

This study shows that new motor skills can be learned by reusing existing motor commands rather than generating new ones, using a myoelectric interface task with muscle activation.

This study investigates how the relevance of visual feedback affects implicit sensorimotor adaptation, finding that task-relevant feedback enhances aftereffects while distracting feedback reduces them.

The paper investigates whether first-person shooter (FPS) games can serve as a valid tool for studying sensorimotor control by comparing kinematic metrics across different visual feedback conditions.

The paper investigates the relationship between savings and long-term memory in motor learning, finding a double dissociation between the mechanisms underlying each.

This paper measures motion-to-photon latency in VR systems using a high-speed camera technique, revealing latency reductions due to motion prediction algorithms.

The paper investigates proactive inhibition in complex goal-directed movements, finding that movement duration and endpoint error are affected, challenging a classical dichotomy of inhibition.

Synthesizing visuomotor adaptation literature, this review maps three distinct error signals—task performance, sensory prediction, and binary target hitting errors—onto interacting implicit and explicit learning processes.

This study investigates how re-exposure to a sensorimotor perturbation affects explicit and implicit learning, finding that explicit learning shows savings while implicit adaptation is reduced.

The paper shows that motor correction is limited by error size rather than error sensitivity in sensorimotor adaptation.