Vonne van Polanen

This study examines how weight information transfer between hands depends on hand use and handedness for perception and action.

This study investigates how explicit and implicit information affects corticospinal excitability during hand-object interactions, finding that explicit cues improve performance but not excitability, while implicit cues do not influence either.

The paper shows participants can quickly adjust force scaling for object lifting based on sensory cues about object properties, integrating visual and haptic information.

This study investigates the role of the anterior intraparietal cortex in anticipatory force scaling and the size-weight illusion using transcranial magnetic stimulation.

This study investigates whether adjustments in grip aperture during reach-to-grasp movements affect perceived object size, finding no significant alteration in size perception despite grasp corrections.

The paper investigates whether motor resonance is modulated by an object's weight distribution and finds that it is, during both observation and planning of lifting actions.

The paper shows that observing lifts of objects conveys weight distribution information, improving digit positioning strategies, but only error observations enhance predictive motor control for unexpected weight distributions.

The paper investigates the role of aIPS and LO in force scaling and weight perception during object lifting, finding no effect on force planning but time-specific changes in grip forces and weight estimation.

This paper investigates how weight expectations during object lifting observation modulate motor resonance, showing that pSTS suppression of motor resonance is critical for weight-based corticospinal excitability.

This study shows that simultaneous perception of size and weight during object lifting reduces the size-weight illusion below discrimination thresholds, supporting the prediction mismatch theory.

This study shows that sensorimotor memory for object weight during lifting is based on information from the lifting phase, not the holding phase.

The paper investigates how visual delay affects force scaling and weight perception during object lifting in virtual reality, revealing the brain's weighting of haptic and visual signals.