Circuit mechanisms for the chemical modulation of cortex-wide network interactions and behavioral variability
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Circuit mechanisms for the chemical modulation of cortex-wide network interactions and behavioral variability. / Pfeffer, Thomas; Ponce-Alvarez, Adrian; Tsetsos, Konstantinos; Meindertsma, Thomas; Gahnström, Christoffer Julius; van den Brink, Ruud Lucas; Nolte, Guido; Engel, Andreas Karl; Deco, Gustavo; Donner, Tobias Hinrich.
in: SCI ADV, Jahrgang 7, Nr. 29, eabf5620, 07.2021.Publikationen: SCORING: Beitrag in Fachzeitschrift/Zeitung › SCORING: Zeitschriftenaufsatz › Forschung › Begutachtung
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TY - JOUR
T1 - Circuit mechanisms for the chemical modulation of cortex-wide network interactions and behavioral variability
AU - Pfeffer, Thomas
AU - Ponce-Alvarez, Adrian
AU - Tsetsos, Konstantinos
AU - Meindertsma, Thomas
AU - Gahnström, Christoffer Julius
AU - van den Brink, Ruud Lucas
AU - Nolte, Guido
AU - Engel, Andreas Karl
AU - Deco, Gustavo
AU - Donner, Tobias Hinrich
N1 - Copyright © 2021 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works. Distributed under a Creative Commons Attribution NonCommercial License 4.0 (CC BY-NC).
PY - 2021/7
Y1 - 2021/7
N2 - Influential theories postulate distinct roles of catecholamines and acetylcholine in cognition and behavior. However, previous physiological work reported similar effects of these neuromodulators on the response properties (specifically, the gain) of individual cortical neurons. Here, we show a double dissociation between the effects of catecholamines and acetylcholine at the level of large-scale interactions between cortical areas in humans. A pharmacological boost of catecholamine levels increased cortex-wide interactions during a visual task, but not rest. An acetylcholine boost decreased interactions during rest, but not task. Cortical circuit modeling explained this dissociation by differential changes in two circuit properties: the local excitation-inhibition balance (more strongly increased by catecholamines) and intracortical transmission (more strongly reduced by acetylcholine). The inferred catecholaminergic mechanism also predicted noisier decision-making, which we confirmed for both perceptual and value-based choice behavior. Our work highlights specific circuit mechanisms for shaping cortical network interactions and behavioral variability by key neuromodulatory systems.
AB - Influential theories postulate distinct roles of catecholamines and acetylcholine in cognition and behavior. However, previous physiological work reported similar effects of these neuromodulators on the response properties (specifically, the gain) of individual cortical neurons. Here, we show a double dissociation between the effects of catecholamines and acetylcholine at the level of large-scale interactions between cortical areas in humans. A pharmacological boost of catecholamine levels increased cortex-wide interactions during a visual task, but not rest. An acetylcholine boost decreased interactions during rest, but not task. Cortical circuit modeling explained this dissociation by differential changes in two circuit properties: the local excitation-inhibition balance (more strongly increased by catecholamines) and intracortical transmission (more strongly reduced by acetylcholine). The inferred catecholaminergic mechanism also predicted noisier decision-making, which we confirmed for both perceptual and value-based choice behavior. Our work highlights specific circuit mechanisms for shaping cortical network interactions and behavioral variability by key neuromodulatory systems.
U2 - 10.1126/sciadv.abf5620
DO - 10.1126/sciadv.abf5620
M3 - SCORING: Journal article
C2 - 34272245
VL - 7
JO - SCI ADV
JF - SCI ADV
SN - 2375-2548
IS - 29
M1 - eabf5620
ER -
