Jing Liu

The paper shows that mentally replaying past events at different speeds changes perceived duration through alpha and theta brain oscillations, without affecting memory content.

The paper shows that reactivating positive traits during sleep enhances self-evaluation, but this effect is reduced with higher depressive symptoms.

The paper investigates how hippocampal ripple activity and its coupling with neocortical ripples support visual short-term memory maintenance in humans.

This study shows that reactivating conflicting memories during sleep reduces decision ambivalence by integrating them, as evidenced by behavioral and electrophysiological measures.

This study investigates memory control impairments in insomnia disorder, finding reduced suppression-induced forgetting and altered electrophysiological responses during memory suppression tasks.

This study examines how REM and SWS sleep stages influence memory transformation by analyzing EEG data and representational similarity at item and category levels.

This study shows that social conformity affects both explicit ratings and neural representations of facial attractiveness, with stronger effects from in-group influences and tighter social norms.

The paper investigates how working memory prioritization affects representational formats in visual and prefrontal cortex using intracranial EEG and deep neural networks.

This study weakens aversive memories during sleep by reactivating positive memories, reducing recall and increasing positive memory intrusions.

This study uses EEG data and multivariate decoding to track how memory suppression affects cortical patterns and leads to forgetting.

This study identifies item-specific memory reactivation during slow-wave sleep using EEG and shows its role in memory consolidation.

The paper shows that presenting positive words during NREM sleep can reduce negative affect judgments of unwanted memories, associated with changes in theta and sigma brain activity.

This study shows that secondary motor cortex (M2) is crucial for adaptive action selection during visual categorization by regulating sensory history and upcoming choice representations.