感官复重对帕金森病患者姿势控制和皮层活动的影响

Maryam Sadeghi, Thomas Bristow, Sodiq Fakorede, Ke Liao, Jacqueline A Palmer, Kelly Lyons, Rajesh Pahwa, Chun-Kai Huang, Abiodun Akinwuntan, Hannes Devos
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摘要

摘要目的:平衡需要大脑皮层对视觉、躯体感觉和前庭输入的控制。这项横断面研究的目的是使用感觉再加权方法,比较帕金森病(PD)患者和对照组患者的这些系统对姿势控制和大脑皮层活动的贡献:10 名帕金森氏症患者(年龄:72 加减 9;3 名女性;Hoehn & Yahr: 2 [1.5 至 2.50])和 11 名对照组患者(年龄:70 加减 3;4 名女性)在使用脑电图(EEG)记录大脑皮层活动的同时,完成了虚拟现实(VR-SOT)中的感觉组织测试。条件 1 至 3 在稳定的平台上完成;条件 4 至 6 在泡沫上完成。条件 1 和 4 是在睁眼的情况下完成的;条件 2 和 5 是在黑暗的 VR 环境中完成的;条件 3 和 6 是在移动的 VR 环境中完成的。采用线性混合模型来评估两组在不同姿势控制条件下压力中心(COP)位移和脑电图阿尔法和θ/β比值功率的变化。所有分析均以条件 1 为参照:结果:当依赖前庭输入时,与对照组相比,帕金森病患者在前胸(AP)方向表现出更大的 COP 位移(条件 5;p<0.0001)。在依靠体感(条件 2;p = 0.03)、视觉(条件 4;p = 0.002)和前庭(条件 5;p <;0.0001)系统时,帕金森病患者的 COP 内外侧(ML)摇摆比对照组更大。与对照组相比,帕金森病患者在依赖视觉输入时(条件 2;p = 0.003)表现出更大的α功率,在依赖体感输入时(条件 4;p = 0.001)表现出更大的θ/β比率功率:结论:脊髓灰质炎会影响姿势控制的重新加权,表现为更大的 COP 位移和皮质活动增加。需要进一步研究以确定皮质活动和 COP 位移之间的时间动态。
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The Effect of Sensory Reweighting on Postural Control and Cortical Activity in Parkinsons Disease
Abstract Aims: Balance requires the cortical control of visual, somatosensory, and vestibular inputs. The aim of this cross-sectional study was to compare the contributions of each of these systems on postural control and cortical activity using a sensory reweighting approach between participants with Parkinsons disease (PD) and controls. Methods: Ten participants with PD (age: 72 plus or minus 9; 3 women; Hoehn & Yahr: 2 [1.5 to 2.50]) and 11 controls (age: 70 plus or minus 3; 4 women) completed a sensory organization test in virtual reality (VR-SOT) while cortical activity was being recorded using electroencephalography (EEG). Conditions 1 to 3 were completed on a stable platform; conditions 4 to 6 on a foam. Conditions 1 and 4 were done with eyes open; conditions 2 and 5 in a darkened VR environment; and conditions 3 and 6 in a moving VR environment. Linear mixed models were used to evaluate changes in center of pressure (COP) displacement and EEG alpha and theta/beta ratio power between the two groups across the postural control conditions. Condition 1 was used as reference in all analyses. Results: Participants with PD showed greater COP displacement than controls in the anteroposterior (AP) direction when relying on vestibular input (condition 5; p<0.0001). The mediolateral (ML) COP sway was greater in PD than in controls when relying on the somatosensory (condition 2; p = 0.03), visual (condition 4; p = 0.002), and vestibular (condition 5; p < 0.0001) systems. Participants with PD exhibited greater alpha power compared to controls when relying on visual input (condition 2; p = 0.003) and greater theta/beta ratio power when relying on somatosensory input (condition 4; p = 0.001). Conclusions: PD affects reweighting of postural control, exemplified by greater COP displacement and increased cortical activity. Further research is needed to establish the temporal dynamics between cortical activity and COP displacement.
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