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Cognitive Memory: Cellular and Network Machineries and Their Top-Down Control
Yasushi Miyashita
Abstract:
A brain-wide distributed network orchestrates cognitive memorizingand remembering of explicit memory (i.e., memory of facts andevents). The network was initially identified in humans andis being systematically investigated in molecular/genetic, single-unit,lesion, and imaging studies in animals. The types of memoryidentified in humans are extended into animals as episodic-like(event) memory or semantic-like (fact) memory. The unique configurationalassociation between environmental stimuli and behavioral context,which is likely the basis of episodic-like memory, depends onneural circuits in the medial temporal lobe, whereas memorytraces representing repeated associations, which is likely thebasis of semantic-like memory, are consolidated in the domain-specificregions in the temporal cortex. These regions are reactivatedduring remembering and contribute to the contents of a memory.Two types of retrieval signal reach the cortical representations.One runs from the frontal cortex for active (or effortful) retrieval(top-down signal), and the other spreads backward from the medialtemporal lobe for automatic retrieval. By sending the top-downsignal to the temporal cortex, frontal regions manipulate andorganize to-be-remembered information, devise strategies forretrieval, and also monitor the outcome, with dissociated frontalregions making functionally separate contributions. The challengeis to understand the hierarchical interactions between thesemultiple cortical areas, not only with a correlational analysisbut also with an interventional study demonstrating the causalnecessity and the direction of the causality.
Department of Physiology, University of Tokyo School of Medicine, Hongo, Tokyo 113-0033, Japan.
E-mail: yasushi_miyashita{at}m.u-tokyo.ac.jp
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