Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease

Background: Rapid eye movement (REM) sleep behaviour disorder (RBD) is one of the most common sleep problems and represents a key prodromal marker in Parkinson’s disease (PD). It remains unclear whether and how basal ganglia nuclei, structures that are directly involved in the pathology of PD, are i...

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Main Authors: Yin, Z, Yuan, T, Yang, A, Xu, Y, Zhu, G, An, Q, Ma, R, Gan, Y, Shi, L, Bai, Y, Zhang, N, Wang, C, Jiang, Y, Meng, F, Neumann, W, Tan, H, Zhang, J
Format: Journal article
Language:English
Published: BMJ Publishing Group 2024
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author Yin, Z
Yuan, T
Yang, A
Xu, Y
Zhu, G
An, Q
Ma, R
Gan, Y
Shi, L
Bai, Y
Zhang, N
Wang, C
Jiang, Y
Meng, F
Neumann, W
Tan, H
Zhang, J
author_facet Yin, Z
Yuan, T
Yang, A
Xu, Y
Zhu, G
An, Q
Ma, R
Gan, Y
Shi, L
Bai, Y
Zhang, N
Wang, C
Jiang, Y
Meng, F
Neumann, W
Tan, H
Zhang, J
author_sort Yin, Z
collection OXFORD
description Background: Rapid eye movement (REM) sleep behaviour disorder (RBD) is one of the most common sleep problems and represents a key prodromal marker in Parkinson’s disease (PD). It remains unclear whether and how basal ganglia nuclei, structures that are directly involved in the pathology of PD, are implicated in the occurrence of RBD. Method: Here, in parallel with whole-night video polysomnography, we recorded local field potentials from two major basal ganglia structures, the globus pallidus internus and subthalamic nucleus, in two cohorts of patients with PD who had varied severity of RBD. Basal ganglia oscillatory patterns during RBD and REM sleep without atonia were analysed and compared with another age-matched cohort of patients with dystonia that served as controls. Results: We found that beta power in both basal ganglia nuclei was specifically elevated during REM sleep without atonia in patients with PD, but not in dystonia. Basal ganglia beta power during REM sleep positively correlated with the extent of atonia loss, with beta elevation preceding the activation of chin electromyogram activities by ~200 ms. The connectivity between basal ganglia beta power and chin muscular activities during REM sleep was significantly correlated with the clinical severity of RBD in PD. Conclusions: These findings support that basal ganglia activities are associated with if not directly contribute to the occurrence of RBD in PD. Our study expands the understanding of the role basal ganglia played in RBD and may foster improved therapies for RBD by interrupting the basal ganglia-muscular communication during REM sleep in PD.
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spelling oxford-uuid:7b64b163-3204-47f7-a536-99658f25ed602024-07-20T14:02:07ZContribution of basal ganglia activity to REM sleep disorder in Parkinson’s diseaseJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:7b64b163-3204-47f7-a536-99658f25ed60EnglishJisc Publications RouterBMJ Publishing Group2024Yin, ZYuan, TYang, AXu, YZhu, GAn, QMa, RGan, YShi, LBai, YZhang, NWang, CJiang, YMeng, FNeumann, WTan, HZhang, JBackground: Rapid eye movement (REM) sleep behaviour disorder (RBD) is one of the most common sleep problems and represents a key prodromal marker in Parkinson’s disease (PD). It remains unclear whether and how basal ganglia nuclei, structures that are directly involved in the pathology of PD, are implicated in the occurrence of RBD. Method: Here, in parallel with whole-night video polysomnography, we recorded local field potentials from two major basal ganglia structures, the globus pallidus internus and subthalamic nucleus, in two cohorts of patients with PD who had varied severity of RBD. Basal ganglia oscillatory patterns during RBD and REM sleep without atonia were analysed and compared with another age-matched cohort of patients with dystonia that served as controls. Results: We found that beta power in both basal ganglia nuclei was specifically elevated during REM sleep without atonia in patients with PD, but not in dystonia. Basal ganglia beta power during REM sleep positively correlated with the extent of atonia loss, with beta elevation preceding the activation of chin electromyogram activities by ~200 ms. The connectivity between basal ganglia beta power and chin muscular activities during REM sleep was significantly correlated with the clinical severity of RBD in PD. Conclusions: These findings support that basal ganglia activities are associated with if not directly contribute to the occurrence of RBD in PD. Our study expands the understanding of the role basal ganglia played in RBD and may foster improved therapies for RBD by interrupting the basal ganglia-muscular communication during REM sleep in PD.
spellingShingle Yin, Z
Yuan, T
Yang, A
Xu, Y
Zhu, G
An, Q
Ma, R
Gan, Y
Shi, L
Bai, Y
Zhang, N
Wang, C
Jiang, Y
Meng, F
Neumann, W
Tan, H
Zhang, J
Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title_full Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title_fullStr Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title_full_unstemmed Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title_short Contribution of basal ganglia activity to REM sleep disorder in Parkinson’s disease
title_sort contribution of basal ganglia activity to rem sleep disorder in parkinson s disease
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