Columnar Processing in Primate pFC: Evidence for Executive Control Microcircuits

A common denominator for many cognitive disorders of human brain is the disruption of neural activity within pFC, whose structural basis is primarily interlaminar (columnar) microcircuits or “minicolumns.” The importance of this brain region for executive decision-making has been well documented; ho...

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Veröffentlicht in:Journal of cognitive neuroscience 2012-12, Vol.24 (12), p.2334-2347
Hauptverfasser: Opris, Ioan, Hampson, Robert E., Gerhardt, Greg A., Berger, Theodore W., Deadwyler, Sam A.
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container_issue 12
container_start_page 2334
container_title Journal of cognitive neuroscience
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creator Opris, Ioan
Hampson, Robert E.
Gerhardt, Greg A.
Berger, Theodore W.
Deadwyler, Sam A.
description A common denominator for many cognitive disorders of human brain is the disruption of neural activity within pFC, whose structural basis is primarily interlaminar (columnar) microcircuits or “minicolumns.” The importance of this brain region for executive decision-making has been well documented; however, because of technological constraints, the minicolumnar basis is not well understood. Here, via implementation of a unique conformal multielectrode recording array, the role of interlaminar pFC minicolumns in the executive control of task-related target selection is demonstrated in nonhuman primates performing a visuomotor DMS task. The results reveal target-specific, interlaminar correlated firing during the decision phase of the trial between multielectrode recording array-isolated minicolumnar pairs of neurons located in parallel in layers 2/3 and layer 5 of pFC. The functional significance of individual pFC minicolumns (separated by 40 μm) was shown by reduced correlated firing between cell pairs within single minicolumns on error trials with inappropriate target selection. To further demonstrate dependence on performance, a task-disrupting drug (cocaine) was administered in the middle of the session, which also reduced interlaminar firing in minicolumns that fired appropriately in the early (nondrug) portion of the session. The results provide a direct demonstration of task-specific, real-time columnar processing in pFC indicating the role of this type of microcircuit in executive control of decision-making in primate brain.
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subjects Animals
Brain
Cocaine - pharmacology
Cognition & reasoning
Cognition - drug effects
Correlation analysis
Data Interpretation, Statistical
Decision making
Dopamine - physiology
Dopamine Uptake Inhibitors - pharmacology
Electrodes, Implanted
Electrophysiological Phenomena - physiology
Executive Function - drug effects
Executive Function - physiology
Macaca mulatta
Nerve Net - drug effects
Nerve Net - physiology
Neurological disorders
Prefrontal Cortex - drug effects
Prefrontal Cortex - physiology
Primates
Psychomotor Performance - drug effects
Psychomotor Performance - physiology
title Columnar Processing in Primate pFC: Evidence for Executive Control Microcircuits
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