View clinical trials related to Freezing of Gait.
Filter by:The investigators will modify and evaluate the feasibility of a mindfulness intervention among people living with Parkinson disease (PD) and freezing of gait (FOG). FOG is a severe motor disturbance that prevents people from stepping normally and is associated with anxiety, frustration, sedentary behaviors, poorer quality of life, and falls. Mindfulness-Based Stress Reduction (MBSR) is an evidence-based practice that creates a culture to reduce stress and anxiety by increasing conscious awareness and self-compassion. In this study, the investigators will develop a mindfulness-based walking intervention to address both mental health and mobility challenges that constitute FOG. This R34 feasibility study includes three aims to permit the development of a mind and body approach for FOG among people living with PD.
The sequence effect (SE), defined as a reduction in amplitude of repetitive movements, is a common clinical feature of Parkinson's disease (PD), being a major contributor to freezing of gait (FOG). During walking, SE manifests as a step-by-step reduction in step length when approaching a turn or gait destination (dSE). The investigators studied the effect of a 4-week rehabilitation program on the destination sequence effect in patients affected by Parkinson's disease with and without Freezing of Gait. All subjects were evaluated with inertial gait analysis for dSE recording.
People with Parkinson's disease (PD) often show gait impairments such as, shuffling gait, short steps and gait asymmetry and irregularity. These gait problems are already apparent in the early disease stages, having an immense effect on daily life functioning. Especially Freezing of Gait (FOG), where the patients are not able to initiate or continue their movement despite their intention to do so, is a debilitating problem. It is thought that lack of gait adaptability could be an underlying cause of FOG. With a split-belt treadmill the speed of both legs can be controlled independently, which forces participants to actively adapt their gait to the new situation. In a previous study performed at our lab, it was shown that only one session of split-belt training (SBT), in which the speed of one leg was reduced, improved gait adaptability and other gait features compared to tied-belt training (TBT). Furthermore, overground turning speed improved after only one single training session and this was even retained 24 hours later, indicating training induced long-term potentiation. Since the short-term effects of SBT are promising, the objective of this study is to investigate if 4 weeks of SBT, 3 times a week, has an effect on gait deficits found in individuals with PD, compared to 4-weeks, 3 times a week, of TBT.
Freezing of Gait (FOG) is a disabling symptom common in advanced Parkinson's Disease. FOG is an independent contributor to fall risk and is only partially relieved by medication. Parkinson's patients with FOG are known to have more difficulty with gait adaptation in their day to day environment. Further, asymmetry of gait has been implicated in FOG as these episodes are often elicited during asymmetric tasks such as turning. This study will examine the effect of a single session of split-belt treadmill walking on gait adaptation, gait symmetry and FOG as well as 24 hour retention of these effects.
Subjects are being asked to participate in this study to determine the safety and effectiveness of a drug called atomoxetine in the treatment of freezing of gait for Parkinson's Disease patients. Atomoxetine (ATM) is an approved drug currently on the market for the treatment of attention deficit. It works to increase the amount of norepinephrine (a chemical in the brain that helps keep us awake and alert) in our brain. ATM has not been approved by the Food and Drug Administration (FDA) to be used in the treatment of PD, but has been found to be well tolerated in this patient population.
We aim to investigate the higher level mechanism of gait disorders in PD patients by ambulatory recording of electroencephalographic (EEG) and leg electromyographic (EMG) signals during unconstrained walking. Independent component analysis will be conducted for signal analysis. The connectivity among different brain regions will also be investigated. The PD patients received deep brain stimulation will be recruited for the study. The local field potentials recorded from sub-thalamic nuclei and/or PPN will be recorded concomitantly with EEG and leg EMG signals during unconstrained walking in PD patients to assess the roles of these deep structures in ambulation and their functional connectivity with other brain regions during walking.