Unit of Neurology, Neurophysiology, Neurobiology, Department of Medicine, Università Campus Bio-Medico Di Roma, Rome, Italy.
Brain Innovations Lab, Università Campus Bio-Medico Di Roma, Rome, Italy.
Expert Rev Neurother. 2021 Dec;21(12):1371-1388. doi: 10.1080/14737175.2021.2000392. Epub 2021 Nov 17.
Motor complication management is one of the main unmet needs in Parkinson's disease patients.
Among the most promising emerging approaches for handling motor complications in Parkinson's disease, adaptive deep brain stimulation strategies operating in closed-loop have emerged as pivotal to deliver sustained, near-to-physiological inputs to dysfunctional basal ganglia-cortical circuits over time. Existing sensing systems that can provide feedback signals to close the loop include biochemical-, neurophysiological- or wearable-sensors. Biochemical sensing allows to directly monitor the pharmacokinetic and pharmacodynamic of antiparkinsonian drugs and metabolites. Neurophysiological sensing relies on neurotechnologies to sense cortical or subcortical brain activity and extract real-time correlates of symptom intensity or symptom control during DBS. A more direct representation of the symptom state, particularly the phenomenological differentiation and quantification of motor symptoms, can be realized via wearable sensor technology.
Biochemical, neurophysiologic, and wearable-based biomarkers are promising technological tools that either individually or in combination could guide adaptive therapy for Parkinson's disease motor symptoms in the future.
运动并发症的管理是帕金森病患者未满足的主要需求之一。
在处理帕金森病运动并发症的最有前途的新兴方法中,闭环工作的自适应深部脑刺激策略已经成为为功能障碍的基底节-皮层回路提供持续、接近生理的输入的关键,随着时间的推移。现有的能够提供反馈信号以闭环的传感系统包括生化、神经生理或可穿戴传感器。生化传感允许直接监测抗帕金森药物及其代谢物的药代动力学和药效动力学。神经生理传感依赖于神经技术来感知皮质或皮质下脑活动,并在 DBS 期间提取症状强度或症状控制的实时相关物。通过可穿戴传感器技术,可以更直接地表示症状状态,特别是运动症状的现象学差异和量化。
生化、神经生理和基于可穿戴设备的生物标志物是很有前途的技术工具,它们可以单独或联合使用,为未来帕金森病运动症状的适应性治疗提供指导。