The retrieval of recent memories and very remote memories may rely on distinct regions of the hippocampus.

Impairing effects of post-retrieval noradrenergic but not glucocorticoid activation on future recall are linked to hippocampal reactivation and category-level reinstatement in ventral temporal cortex during memory retrieval.

Retrieval practice strongly engages the medial prefrontal cortex to integrate and differentiate memory representations, resulting in more effective memory updating.

At mammalian synapses the clathrin adaptor AP-2 plays a crucial role in the endocytic retrieval of a subset of synaptic vesicle proteins from the presynaptic cell surface, while clathrin is dispensable.

A neural network showed better prediction of upcoming states when it was selective in when it encoded and retrieved episodic memories, thereby explaining why humans show this selectivity in studies of naturalistic memory.

Neural representations are fast-evolving trajectories, and distinct components of these trajectories reappear during retrieval with distinct consequences for learning.

Upon retrieval, the angular gyrus recombines distinct, consolidated schema components into one memory representation.

Inhibitory noninvasive stimulation to the precuneus disrupts theta and gamma oscillatory coupling between medial temporal lobes and neocortical regions during complex personal memory retrieval.

The ability of mice to encode new memories or retrieve existing ones can be selectively manipulated by using optogenetics to inhibit hippocampal activity at specific phases of the theta cycle.

The bidirectional orbitofrontal cortex-basolateral amygdala circuit helps us to learn the details of predicted rewarding events and then to use that information to make good reward pursuit decisions.