View clinical trials related to Parkinson's Disease.
Filter by:Physical therapy approaches for balance and walking deficits in Parkinson's disease (PD) have limited effectiveness, with mostly short-lasting benefits. An exoskeleton is a device that straps to the legs and provides a passive force to assist people to better ambulate. The goal of this study is to establish the feasibility and safety of a lightweight exoskeleton on mobility and fall reduction in people with PD. As most PD patients eventually require assistive mobility devices, the exoskeleton represents a new option for increased, mobility, quality of life, and independence. Qualified subjects will come to the clinic twice weekly for six weeks (12 total visits) and wear the exoskeleton device while walking under the supervision of a trained physical therapist. Study staff will also interview participants and assess their PD symptoms, quality of life, and overall mobility. This study hopes to establish exoskeletons as modern, standard of care devices, which allow people with PD to maintain more independent and productive lives.
This is a cross-sectional exploratory study. A total of 25 people with PD, 25 young healthy adults, and 25 middle to older adults will be recruited. Axial segment turning pattern and turning performance will be evaluated in two visits using the Vicon 3D motion analysis system, Gaitup, and 3D motion camera. The independent variables are the initiation timing of the head, upper trunk, pelvis, ankle, and foot when turning and the initiation sequence of turning (% turn). The dependent variables are turning performance, including turning velocity, turning steps, turning step length, turning step width), and stance phase (%).
Safety and Efficacy Study of BBM-P002 in subjects with primary advanced Parkinson's disease
The primary purpose of this study is to attempt to replicate and extend promising pilot findings regarding the cognitive benefits of in-home neuro-exergaming with iPACES (interactive Physical and Cognitive Exercise System v3) for persons with mild cognitive impairment (MCI), to evaluate effects for persons with Parkinson's Disease (PD). Participants will include persons with PD, and potentially, also their co-residing partner, who will exercise at home or accessible location, 3-5 times per week for at least 6 months, with follow-up one month after the main intervention. All participation is "remote" (completed at home, or location of choice), utilizing either one's own equipment ("bring-your-own-devices" BYODs: pedaler, phone/tablet, smart-watch) or some equipment which may be supplied by the grant-funded study and shipped directly to the home; all study measures are completed remotely (e.g., via phone app, website, biometric device, videoconference, email, snail mail, etc.).
Pain is an increasingly recognized non-motor symptom of Parkinson's disease (PD), with significant prevalence and negative impact on the quality of life of patients. Repetitive transcranial magnetic stimulation (rTMS) of the primary motor cortex（M1）has been proposed to provide definite analgesic effect for pain syndromes. However, very few placebo-controlled studies have been performed specifically to relieve pain in PD. What's more, based on behavioral measures alone, it is impossible to reveal the full network dynamics reflecting the impact of TMS. Electroencephalography (EEG), with high temporal resolution, records signal that its origin in electrical neural activity, which makes it suitable for measuring TMS-evoked activation. By recording the TMS induced neuronal activation directly from the cortex, TMS-EEG provides information on the excitability, effective connectivity of cortical area, thus exploring cortical network properties in different functional brain states. In addition, the use of EEG offers great prospects as a tool to select the right patients in order to achieve adequate, long-term pain relief. Besides assessing the efficacy and safety of high-frequency neuronavigated M1-rTMS in PD patients with musculoskeletal pain, the objective of this study additionally aimed to characterize cortical activation behind pain relief. Influence on motor and other non-motor symptoms after rTMS were also investigated.
The purpose of this study is to evaluate the safety of multiple treatments of hAESCs treatments, while exploring the effectiveness of hAESCs treatments for PD.
Primary purpose: Fluctuations and dyskinesia evolution in Parkinson's disease patients, one year after initiation of deep brain stimulation, apomorphin pump or duodopa pump Secundary purposes: - Motor complications evolution at 6 months, 2 and 3 years - MDS UPDRS III score at 6 months, 1, 2 and 3 years - non motor complications evolution at 6 months, 1, 2 and 3 years - cognition and psychiatric complications evolution at 6 months, 1, 2 and 3 years - cutaneous and digestive complications at 6 months, 1, 2 and 3 years - neuropathy occurrence at 6 months, 1, 2 and 3 years - medical treatment and Levodopa equivalent dose modifications at 6 months, 1, 2 and 3 years
This study will probe the function of collections of neurons deep in the brain termed the basal ganglia It will investigate the role of the basal ganglia in how and why movement is disrupted in conditions like Parkinson's disease, Dystonia and Essential Tremor. Deep brain recording and stimulation will be used to probe the basal ganglia's contribution. Patients with relatively severe movement disorders may have electrodes implanted in the basal ganglia so that stimulation can be delivered chronically as a form of therapy. Studying these patients allows researchers (a) to record brain activity from these electrodes in the basal ganglia during symptoms related to abnormal motor control and (b) to stimulate the same electrodes while patients experience symptoms. Like this they can see what aspects of the activity of groups of nerve cells in the basal ganglia are associated with which symptoms and also establish that these aspects of activity help cause linked symptoms. This means studying patients just after electrode implantation, while the leads from the electrodes may still be available for hooking up to external recording and stimulating devices. Understanding how the activity of groups of nerve cells in the basal ganglia controls movement may help us develop improved treatments.
In phenotypic animal models of Parkinson's Disease (PD), chronic physical exercise has produced nigrostriatal neuroprotection and symptom improvement, provided training was of high-intensity and prolonged duration (>3 months in rodent models). Conventional physical therapy in Parkinson's disease (PD) has traditionally avoided fatigue and high intensity workouts. Yet, in PD controlled studies have shown that: (i) an acute aerobic stress produces endogenous dopamine immediately after the exercise and (ii) short term (a few weeks) high intensity aerobic training enhances D2 striatal receptor density and cortical excitability and clinically improves walking, upper limb and executive functions; (iii) long-term (six months) high intensity aerobic treadmill training is associated with less deterioration of subjective UPDRS III score compared to a waiting list. Long-term high intensity aerobic training has not been compared to low or medium intensity training in PD patients for its objective motor, cognitive and putative neuroprotective effects.
To investigate the effect of concurrent transcranial direct current stimulation and gait training on gait performance when doing the cognitive dual-task in people with Parkinson's Disease.