Brice A. Kuhl

The paper shows that hippocampal activity patterns invert or preserve visual similarity based on memory interference stages, revealing dynamic representations.

The paper finds evidence for temporal context reinstatement in human fMRI data during memory recall, showing that hippocampal and neocortical activity patterns are related to the reinstatement of past event contexts.

This study shows spaced learning enhances neural representations in ventromedial prefrontal cortex, which correlates with improved memory performance.

The paper shows that hippocampal repulsion in CA3 and dentate gyrus occurs when internal beliefs differ despite ambiguous or identical visual input during a spatial route-learning task.

The paper shows that memory decisions are predicted by the difference in neural similarity between past and future events, with strongest effects in recent memory and weak true memories.

This study investigates how parietal cortex integrates episodic memory and semantic content using fMRI and encoding models, revealing additive and interactive effects in different regions.

The paper shows that re-expression of CA1 and entorhinal activity patterns predicts temporal context memory over long timescales in humans.

The paper reconstructs multidimensional semantic content from fMRI data during visual perception and memory recall, showing accurate reconstructions from visual and lateral parietal cortices and cross-subject transferability of encoding models.

This study identifies distinct patterns of background functional connectivity associated with perception and memory retrieval states using fMRI and full correlation matrix analysis.

This study shows that spatial tuning properties differ between perceptual activity and memory retrieval in human visual cortex, with reduced spatial precision in memory that cannot be explained by noise or performance.

The paper shows that similar events trigger adaptive repulsion in long-term memory, reducing interference and improving memory accuracy.

This study shows that abrupt remapping in human CA3/dentate gyrus correlates with successful learning and resolves memory interference by decorrelating similar memory representations.

The paper shows that different types of parietal reactivation during memory retrieval predict distinct memory outcomes: category-level reactivation increases false alarms, while item-level reactivation improves correct rejections.

The paper shows that lateral parietal cortex (LPC) amplifies stimulus feature information during memory retrieval compared to perception, with dorsal LPC reflecting top-down goals and ventral LPC being goal-independent.

The paper shows that hippocampal representations of overlapping routes diverge with learning, becoming less similar than non-overlapping events, indicating overlap triggers repulsion.