Ying Wang

This study shows that concurrent anodal tDCS with motor training improves rotarod performance and increases cortical TrkB phosphorylation in mice.

The paper investigates how the human brain perceives animacy from biological motion using visual adaptation, finding that motion signals, especially from feet, influence animacy perception across species.

This study shows how rhythmic brain activity tracks hierarchical audiovisual rhythms in biological motion, revealing distinct integration modes and a link to autism traits.

The paper shows that structured visual streams, based on idiom, shape, or motion, dominate over unstructured ones in binocular rivalry, indicating that temporal integration of multi-level regularities is essential for conscious experience.

This study investigates biological motion perception in children with ADHD, finding atypical processing of local and global cues and linking it to attention and intelligence.

This study shows that anodal tDCS during motor task performance enhances learning specifically for that task in mice, with effects dependent on task-related neuronal activity in the primary motor cortex.

This study shows that higher-order contextual rhythms influence visual attention by recomposing dynamic temporal attention through cortical entrainment and alpha power coupling.