Hiroaki Gomi

This study shows that preceding gaze history influences reaching memory formation and retrieval, expanding the role of eye-hand coordination beyond visual guidance.

This paper introduces a 15-second smartphone-based motor skill assessment that quantifies movement variability, revealing age-related changes and practice effects in hand and foot motor skills.

The paper proposes that command timing volatility explains movement variability in skilled actions and links it to handedness and motor impairments.

The paper shows that during voluntary movement, sensory signals are attenuated in the primate cuneate nucleus, suggesting it plays a role in modulating somatosensory transmission.

This study shows that active self-touch after the rubber hand illusion reduces proprioceptive drift, indicating it restores bodily self-awareness, while involuntary self-touch does not.

This study investigates the neural dynamics of illusory tactile pulling sensations using EEG and asymmetric vibration, finding that parietal lobe activity and P200 modulations are associated with these sensations.

This paper introduces a Model Predictive Control strategy that regulates both movement and interaction control, demonstrating its ability to produce human-like movements and handle nonlinear dynamics.

The paper shows that using endpoint feedback in a visuomotor task promotes cognitive strategy use, leading to better intermanual transfer of learning compared to continuous feedback.

The paper investigates how sensory and cognitive factors influence the integration of tactile motion signals across multiple fingerpads, finding that within-hand integration is limited and influenced by perceptual weighting of a leading finger.

The paper investigates how lateral inhibition in somatosensory processing changes based on whether participants compare or combine tactile stimuli, finding reduced suppression during combination.

This study investigates how motor and tactile information interact in spatial perception through robot-mediated self-touch experiments, finding stronger integration during active movements.