Dopamine D1-Receptor Organization Contributes to Functional Brain Architecture

Recent work has recognized a gradient-like organization in cortical function, spanning from primary sensory to transmodal cortices. It has been suggested that this axis is aligned with regional differences in neurotransmitter expression. Given the abundance of dopamine D1-receptors (D1DR), and its i...

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Veröffentlicht in:The Journal of neuroscience 2024-03, Vol.44 (11), p.e0621232024
Hauptverfasser: Pedersen, Robin, Johansson, Jarkko, Nordin, Kristin, Rieckmann, Anna, Wåhlin, Anders, Nyberg, Lars, Bäckman, Lars, Salami, Alireza
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container_end_page
container_issue 11
container_start_page e0621232024
container_title The Journal of neuroscience
container_volume 44
creator Pedersen, Robin
Johansson, Jarkko
Nordin, Kristin
Rieckmann, Anna
Wåhlin, Anders
Nyberg, Lars
Bäckman, Lars
Salami, Alireza
description Recent work has recognized a gradient-like organization in cortical function, spanning from primary sensory to transmodal cortices. It has been suggested that this axis is aligned with regional differences in neurotransmitter expression. Given the abundance of dopamine D1-receptors (D1DR), and its importance for modulation and neural gain, we tested the hypothesis that D1DR organization is aligned with functional architecture, and that inter-regional relationships in D1DR co-expression modulate functional cross talk. Using the world's largest dopamine D1DR-PET and MRI database (  = 180%, 50% female), we demonstrate that D1DR organization follows a unimodal-transmodal hierarchy, expressing a high spatial correspondence to the principal gradient of functional connectivity. We also demonstrate that individual differences in D1DR density between unimodal and transmodal regions are associated with functional differentiation of the apices in the cortical hierarchy. Finally, we show that spatial co-expression of D1DR primarily modulates couplings within, but not between, functional networks. Together, our results show that D1DR co-expression provides a biomolecular layer to the functional organization of the brain.
doi_str_mv 10.1523/JNEUROSCI.0621-23.2024
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subjects architecture
Brain
Brain architecture
Couplings
Crosstalk
Dopamine
Dopamine D1 receptors
Female
functional connectivity
Functional morphology
gradients
Humans
Magnetic Resonance Imaging - methods
Male
Neural networks
organization
Positron emission
Receptors
title Dopamine D1-Receptor Organization Contributes to Functional Brain Architecture
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