Jérémie Gaveau

This study shows punishment accelerates early learning of basketball free-throws, while reward improves long-term retention, with individual sensitivity to each influencing outcomes.

This study compares arm and whole-body motor control in younger and older adults to determine if age-related changes reflect deterioration or compensation, finding that reduced whole-body movement efficiency correlates with balance control.

This study uses EEG and a humanoid robot to predict human and robot movement during motor learning, showing neural correlates of learning and decoding movement parameters.

The paper uses machine learning to analyze multimuscle activity during pointing movements, revealing modular tuning of muscles to direction and the role of deactivation in reducing effort.

This study investigates how motor strategies adjust under different accuracy constraints, finding that gravity-related effort minimization decreases when high accuracy is required.

This study uses machine learning and feature selection to analyze high-dimensional EMG data and identify muscle activity patterns associated with different pointing angles.

The paper analyzes phasic EMG activity during arm movements to show how the CNS optimizes gravity effects across movement speeds and directions.

This study shows that evening training leads to better skill consolidation compared to morning or afternoon training, with sleep contributing to this effect.

The study finds that the dominant arm minimizes muscle effort more effectively than the non-dominant arm during vertical arm movements, as indicated by directional asymmetries and reduced negative epochs in muscular activity.

The paper compares movement smoothness between physical and motor imagery practice, finding that physical practice leads to smoother movements as indicated by fewer velocity peaks.

This study compares motor lateralization in young and older adults during vertical arm movements, finding reduced lateralization in older adults.

The paper investigates how contraction-dependent intracortical inhibition supports gravity-efficient motor control during vertical arm movements.

The paper demonstrates that gravity is used to optimise motor patterns by reducing muscle effort in human and monkey arm movements.

This study examines motor planning of vertical arm movements in young and older adults, finding that effort optimization persists with aging but shows increased directional asymmetry.

An acute session of motor imagery training induces use-dependent plasticity, as evidenced by changes in corticospinal excitability and movement direction.