丘脑下85hz脑深部刺激可改善帕金森病患者的步行速度和步幅。

F Mügge, U Kleinholdermann, A Heun, M Ollenschläger, J Hannink, D J Pedrosa
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引用次数: 0

摘要

背景:移动步态传感器是一种令人信服的工具,可以客观化特发性帕金森病(iPD)患者症状的严重程度,同时也可以确定干预措施的治疗效果。特别是,深脑刺激(DBS)具有较短的潜伏期,可以利用传感器数据准确评估其参数。本研究旨在了解丘脑下核(STN) DBS患者不同DBS参数导致的步态变化。方法:对最初纳入的27例iPD合并慢性STN DBS患者中的23例进行了各种步态检查分析。之前的刺激设置以随机顺序调整幅度、频率或脉冲宽度。采用线性混合效应模型分析步态速度、步幅和最大传感器升力的变化。结果:我们的研究结果表明,在不同的DBS参数变化下,移动步态传感器测量的步态速度、步幅和腿抬度均有显著改善。值得注意的是,我们在85 Hz下观察到积极的结果,这被证明比通常应用的更高频率更有效,并且这些改进几乎可以在所有条件下追踪。虽然脉宽确实对抬腿有一些改善,但耐受性较差,对一些步态参数的影响也不一致。我们的研究表明,使用较低频率的DBS可能是一种更容易接受和有效的方法来改善iPD患者的步态。结论:我们的研究结果支持对报告步态困难的患者降低刺激频率,特别是那些可以远程调整DBS设置的患者。他们还表明,在不久的将来,移动步态传感器可能会被纳入临床实践。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Subthalamic 85 Hz deep brain stimulation improves walking pace and stride length in Parkinson's disease patients.

Subthalamic 85 Hz deep brain stimulation improves walking pace and stride length in Parkinson's disease patients.

Subthalamic 85 Hz deep brain stimulation improves walking pace and stride length in Parkinson's disease patients.

Subthalamic 85 Hz deep brain stimulation improves walking pace and stride length in Parkinson's disease patients.

Background: Mobile gait sensors represent a compelling tool to objectify the severity of symptoms in patients with idiopathic Parkinson's disease (iPD), but also to determine the therapeutic benefit of interventions. In particular, parameters of Deep Brain stimulation (DBS) with its short latency could be accurately assessed using sensor data. This study aimed at gaining insight into gait changes due to different DBS parameters in patients with subthalamic nucleus (STN) DBS.

Methods: An analysis of various gait examinations was performed on 23 of the initially enrolled 27 iPD patients with chronic STN DBS. Stimulation settings were previously adjusted for either amplitude, frequency, or pulse width in a randomised order. A linear mixed effects model was used to analyse changes in gait speed, stride length, and maximum sensor lift.

Results: The findings of our study indicate significant improvements in gait speed, stride length, and leg lift measurable with mobile gait sensors under different DBS parameter variations. Notably, we observed positive results at 85 Hz, which proved to be more effective than often applied higher frequencies and that these improvements were traceable across almost all conditions. While pulse widths did produce some improvements in leg lift, they were less well tolerated and had inconsistent effects on some of the gait parameters. Our research suggests that using lower frequencies of DBS may offer a more tolerable and effective approach to enhancing gait in individuals with iPD.

Conclusions: Our results advocate for lower stimulation frequencies for patients who report gait difficulties, especially those who can adapt their DBS settings remotely. They also show that mobile gait sensors could be incorporated into clinical practice in the near future.

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