Parkinson Disease

Impulse control disorders and related behaviors (ICDRBs) are characterized by pathological gambling, compulsive shopping or eating, and hypersexuality, but other related behaviors have been described, e.g. hobbyism, and punding. ICDRBs are frequent in Parkinson's Disease (PD), affecting up to 50% of the patients after 5 years with major medical, social, and legal impact, with life changing consequences for patients and caregivers. The main risk factor is dopaminergic therapy, particularly the cumulative dose of dopamine agonists (DA). On the other hand, the dopaminergic therapy is necessary to control motor symptoms, and DA have demonstrated efficacy in delaying motor complications occurring in PD. Ideally, dopaminergic therapy would have to be adjusted to the individual risk of developing ICRDBs to maximize the benefit/risk ratio of each drug. However, despite several clinical risk factors associated with the risk of ICDRBs (in addition to the dopaminergic therapy), it is still not possible to predict their risk at the individual level, and not every patient treated with dopaminergic medications will develop ICDRBs. A machine learning algorithm to predict ICDRBs, based on clinical data, validated by cross-validation on independent replication cohorts has been developed. The PREVENT-ICD study proposes to test the efficacy of a new application, ICD-Shield, based on an algorithm to predict and prevent ICDs,in a multicenter randomized controlled trial to prevent ICDRBs in PD patients by proposing to the clinician treatment adjustment according to the risk predicted by the algorithm, as compared to the standard of care (SoC)

Dysphagia, or difficulty swallowing, is a common symptom of many neurological diseases but its treatment is not well established or easily accessible. To start addressing this gap, the researchers developed and validated a cost-effective wearable surface electromyography (sEMG) biofeedback sensor technology (i-Phagia), optimized to record muscle activity from the head/neck and provide biofeedback to patients and adherence data to clinicians during swallow therapy. This system has been developed with commercially available and widely used materials and the Purdue University IRB has determined that the device is non-significant risk device. The goal of this clinical trial is to learn if this biofeedback (using this new technology/i-Phagia) when used as an adjunct to a standard swallow therapy protocol works to improve swallowing function in patients with post-acute phase stroke or diagnosed with Parkinson's disease. It will also help the investigators learn whether this therapy protocol is equally effective when provided in-person versus via telehealth. Finally, it will determine which patient factors may influence how well the treatment works. The main questions it aims to answer are: * Does biofeedback (using this new technology/i-Phagia) when used as an adjunct to a standard swallow therapy protocol works better than a standard of care treatment to improve swallowing function in patients with post-acute phase stroke or diagnosed with Parkinson's disease? * Is completing the swallow therapy protocol at home (via telehealth) as effective as completing it in-person (in the clinic)? * What factors related to the patients (e.g., age, diagnosis, etc.) may influence how well the treatment works? Participants will: * Complete a 12-week swallow treatment protocol (12 treatment visits) either in-person or at home (via telehealth) * Complete 3 in-person evaluations (pre-treatment; post-treatment; and at a 12-week post treatment follow-up time point) * Exercise at home several days per week and keep a diary/log of their home exercise The hypothesis is that upon study completion, the efficacy of sEMG biofeedback-facilitated swallow therapy for both in-person and telehealth service delivery in two neurogenic dysphagia populations will have been established, and variables determining response to treatment will begin to be identified.

This trial will study the safety and efficacy of intranasal instillation of cultured allogeneic adult umbilical cord or placental derived mesenchymal stem cell exosomes for the treatment of Parkinson's Disease

The goal of this study is to determine the whether a short-term, high-dose form of non-invasive brain stimulation (intermittent theta burst stimulation; iTBS) is a promising and safe treatment for mild cognitive impairment in Parkinson's disease (PD-MCI).

The purpose of this study is to evaluate the effect of IPX203 (Crexont®) - the newest extended-release levodopa formulation - on the duration and quality of good on time, using a wearable device to monitor symptoms. 'Good on time' refers to a period (minutes to hours) when a patient experiences optimal symptom control due to effective medication and has better overall functioning without troublesome dyskinesias. The change in the duration and quality of on-time will be measured by a wearable device placed on your wrist called KinesiaU.

The goal of this clinical trial is two-fold. First to investigate the feasibility of whether a remotely administered smartphone app can increase the volume and intensity of physical activity in daily life in individuals with a LRRK2 G2019S or GBA1 N370S genetic mutation over a long period of time (24 months). Second, to explore the preliminary efficacy of exercise on markers for prodromal Parkinson's disease progression in individuals with a LRRK2 G2019S or GBA1 N370S genetic mutation. Participants will be tasked to achieve an incremental increase of daily steps (volume) and amount of minutes exercised at a certain heart rate (intensity) with respect to their own baseline level. Motivation with regards to physical activity will entirely be communicated through the study specific Slow Speed smartphone app. A joint primary objective consists of two components. First to determine the longitudinal effect of an exercise intervention in LRRK2 G2019S or GBA1 N370S variant carriers on a prodromal load score, comprised of digital biomarkers of prodromal symptoms. The secondary component of the primary outcome is to determine the feasibility of a remote intervention study. The secondary objective is the effect of a physical activity intervention on digital markers of physical fitness. Exploratory outcomes entail retention rate, completeness of remote digital biomarker assessments, digital prodromal motor and non-motor features of PD. Using these biomarkers, the investigators aim to develop a composite score (prodromal load score) to estimate the total prodromal load. An international exercise study with fellow researchers in the United Kingdom are currently in preparation (Slow-SPEED-UK) and active in the Netherlands (Slow-SPEED-NL). Our intention is to analyse overlapping outcomes combined where possible through a meta-analysis plan, to obtain insight on (determinants of) heterogeneity in compliance and possible efficacy across subgroups

The objective of this study is to compile real-world outcomes of Boston Scientific commercially approved radiofrequency (RF) ablation systems used in the central nervous system (CNS) for use in functional neurosurgery.

The recovery of walking ability is crucial to promote independence in daily living and is one of the major goal of neuromotor rehabilitation. Currently, standard rehabilitative programs are usually based on straight-walking training (SWT) and the assessment of their effects is performed through functional scales based on straight-walking trajectories, e.g. Timed Up and Go (TUG), 10 meters walking test (10mWT). Curved-walking training (CWT) may be interesting to provide an ecological and challenging context during rehabilitation. Indeed, CWT is based on demanding neural processes that drive an asymmetrical contribution at lower limb level, challenging balance ability and complex adaptation such as body weight shifting in response to centrifugal force and production of different step lengths. Up to now, literature has investigated CWT in healthy adults in terms of muscular activation, kinematics and kinetics of the movement. Results showed that CWT needs a different biomechanical strategy with respect to SWT. Nevertheless CWT has not been investigated in pathological adults. The present study aims at assessing the effectiveness of a rehabilitative physical therapy based on CWT with respect to traditional SWT for the recovery of locomotor abilities in neurological and orthopaedic patients. The hypothesis is that a training based on curved-walking is ecologically meaningful and may be superior with respect to standard training in improving balance, walking abilities, and independence in activity of daily live of patients. A secondary aim of the project is to propose an innovative functional scale based on the timed up and go on curved trajectory (CTUG), and to determine its reliability and responsiveness, establishing the minimum Detectable Change (MDC) and the Minimal Clinically Important Difference (MCID). A single-blind randomized controlled study is being carried out on three different populations: * Post-acute stroke patients * Idiopathic Parkinson Disease * Femoral fracture A healthy group is also being recruited to provide reference values of CTUG. For each of the three populations, subjects are randomized into two groups. The experimental one performs a novel rehabilitative program composed by a 30-minute training on curved trajectory ("S" trajectory composed by two semicircle with a radius of 1.2 m) in addition to usual care. The control group performs an equal dose of traditional treatment on straight trajectories. Both groups undergo 20 90-minutes sessions of training (three times a week for seven weeks). Participants are evaluated at baseline (T0), after training (T1), and at a three-months follow-up visit (T2). The primary outcome measure is the 10mWT (minimal clinically important difference of 0.16 m/s identified by Tilson and colleagues). On the basis of this measure, a sample size of 70 subjects for each population was computed.

The purpose of this study is to generate evidence of the safety, tolerability, and pharmacokinetics/pharmacodynamics of IV LY4006896 compared with placebo in healthy participants and participants with Parkinson's disease.

Parkinson's disease (PD) is a long-term condition that affects movement, balance, and thinking abilities. It can cause tremor, stiffness, slow movements, and difficulty maintaining balance. In addition to these physical problems, many people with PD also experience difficulties with memory, attention, and other cognitive functions. The balance system in the inner ear (vestibular system) helps maintain posture and orientation, but this system may not work properly in people with PD. This study aims to compare two different types of exercise programs to improve movement, balance, and cognitive abilities in individuals with PD. One program focuses on exercises that stimulate the balance system (vestibular rehabilitation), while the other combines thinking and movement activities at the same time (dual-task training). Thirty-six people with PD will take part in the study. Participants will be randomly assigned to one of three groups: vestibular exercise group, dual-task exercise group, or control group. Exercises will be done under the supervision of a physiotherapist twice a week for eight weeks. Each session will last about 40 minutes and include activities that are safe, structured, and personalized. Before and after the 8-week program, participants will complete simple tests that measure their memory, attention, walking ability, balance, and daily activity level. The results will show whether these exercise approaches can help improve both body and brain functions. The findings of this study are expected to help physiotherapists design more effective and personalized rehabilitation programs for people with Parkinson's disease, leading to better balance, safer movement, and improved quality of life.

FMT may significantly improve quality of life and Parkinson Disease (PD) symptom severity measurements. We hypothesize that gut microbial dysbiosis is a major contributing factor in Parkinson's disease.

Airway protective disorders are a prevalent and progressive consequence of Parkinson's Disease (PD), and often result in aspiration pneumonia which is the leading cause of death in PD. Despite this, a large number of patients with PD do not access specialized services to address these critical deficits. The investigators will examine the comparative effectiveness of a novel treatment paradigm delivered in-person versus via telehealth in persons with PD, as well as the role of patient burden and treatment adherence on outcomes; thus, the proposed research is relevant to public health and in line with NIH's mission to identify novel, efficacious, and accessible rehabilitation strategies for short- and long-term improvement of dysfunctional airway protection in PD.

The research database contains demographic and family history information, longitudinal information on the clinical symptoms, neuropsychological profile and treatments, stored biological samples, and brain images of patients with Parkinson's disease and related disorders receiving care at the Parkinson's disease and Movement Disorders Center and the Hospital of the University of Pennsylvania.

The objective of this research study is to understand how Deep Brain Stimulation (DBS) targeting the subthalamic nucleus (STN) affects cognitive networks in the brain, potentially leading to cognitive decline in patients with Parkinson's Disease (PD). A total of 55 participants with PD who have undergone DBS surgery will be recruited from MUSC's Clinical DBS Program. Participants will attend two post-DBS visits: a 3-hour visit for consent, demographic, and cognitive assessments, and a 3-hour DBS-MRI visit to evaluate brain network connectivity with stimulation ON and OFF. These findings will help improve patient selection for surgery and optimize the selection of stimulation targets that minimize undesirable cognitive side effects.

The primary objective of this study is to characterize real-world clinical outcomes of Deep Brain Stimulation (DBS) using retrospective review of de-identified patient records.

This randomized controlled pilot trial evaluates the usability and safety of PhiCube, a compact, portable, bilateral end-effector robotic device for upper limb rehabilitation, and its impact on motor and cognitive function. Eighty adults aged 18 to 85 years are enrolled in two groups: 60 participants with neuromotor impairment of the upper limbs (stroke, amyotrophic lateral sclerosis, Parkinson's disease, spinal cord injury) and 20 participants with mild cognitive impairment. Within each group, participants are randomly assigned either to conventional rehabilitation combined with PhiCube training or to conventional rehabilitation alone, 5 days a week for 8 weeks. The primary endpoints are usability, measured with the System Usability Scale, and safety, measured as the incidence of adverse events reported by the participant or observed by the operator at the end of each session. Secondary endpoints address upper limb motor function, executive function, independence in daily activities, quality of life, adherence, satisfaction, perception of technology-assisted rehabilitation, and the effect of acoustic feedback on engagement and enjoyment.

This is a Phase 2 study in people with Parkinson's disease who experience motor fluctuations while taking levodopa. The study will evaluate how effective two different doses of the study drug AP-472 are when added to levodopa treatment, compared with a placebo. The study will last about 12 weeks. Participants will be randomly assigned to receive one of the two doses of AP-472 or a placebo. Neither the participants nor the study staff will know which treatment is given. The study includes a screening period, a 4-week period during which Parkinson's medications must remain stable, and an 8-week treatment period. During the treatment period, limited adjustments to levodopa are allowed if needed.

This study investigates how different types of extended reality, Virtual Reality (fully immersive) and Mixed Reality (partly real-world), can be used in rehabilitation for people with Parkinson's disease. Participants will attend a single 45-minute session at the Rehabilitation Center of UZ Ghent, where they will perform a simple balloon-popping task twice using a VR headset, once in each environment. During the exercises, they will be safely supported to prevent falls, while a wearable device measures physical responses such as heart rate and skin conductance. After each task, participants will complete short questionnaires about their experience and mental effort. The study aims to determine which type of extended reality is preferred and how each affects physical and mental responses, supporting the development of more accessible rehabilitation approaches.

This research is studying a supplement called tributyrin in people with Progressive Supranuclear Palsy (PSP) to learn about its safety and tolerability as a potential treatment. The goal of this research study is to see if a similar supplementation regimen and virtual testing is feasible for people with PSP.

Parkinson's disease is a common, progressive neurodegenerative disorder. The degeneration of dopaminergic neurons is associated with characteristic clinical symptoms such as tremor, rigidity, slowness of movement (bradykinesia) and postural instability. Subthalamic nucleus deep brain stimulation (DBS-STN) is a recognized and widely used method of treating advanced stages of Parkinson's disease. It improves clinical symptoms such as tremor, rigidity and slowness of movement (bradykinesia). This method has limited application for late motor and non-motor symptoms such as: akinesia, postural instability, gait, including the phenomenon of "freezing", recurrent falls, balance and dysarthria. These symptoms reduce the quality of life of patients and make them dependent on their caregivers. There is a clear need to develop additional forms of therapy that complement deep brain stimulation in controlling late motor and non-motor symptoms. Physical activity is a commonly used and recommended form of therapy for patients with Parkinson's disease and a complement to pharmacological therapy, improving gait, balance and quality of life. However, there are no clear recommendations including patients after implantation of DBS-STN stimulators to the group undergoing physiotherapy. To this day, only one clinical trial has been registered assessing the effect of physiotherapy on balance and gait in patients with DBS-STN.

The goal of this Phase 2 clinical trial is to investigate the efficacy and safety of NEU-411 in men and women aged 40-80 years with early Parkinson's Disease (PD) who have predicted elevations in the activity of the "leucine-rich repeat kinase 2" ("LRRK2" for short) pathway based on their genetic profile. A DNA test will be used to identify the "LRRK2-driven" population with predicted elevation in the LRRK2 pathway.

Forty percent of people living worldwide with Parkinson's disease (PD) are women. Twenty percent of patients have PD onset under the age of 60 years, a time when women may encounter significant caregiving responsibilities along with occupational and other competing demands. Studies with surveys of women with PD (WwPD) have reported worsening of PDrelated symptoms especially in the week prior and the week of menses. However, prospective evidence is scarce and clinical guidelines to manage this issue do not exist. As a result, care is either non-existent or fragmented. The investigators propose a French multicentre prospective pilot study to capture changes in PD symptoms in relation to the stages of the menstrual cycle aiming at reducing hormonal related worsening in PD symptoms through neurologist intervention and/or patient selfmanagement. Digital technology will remotely enable patient reported outcome (PRO) tracking through the My Moves Matter app changes in PD symptoms during several months. This information will then help neurologists to customize treatment. Changes in motor symptoms will also be highlighted by tracking through the use of a wearable device (PDMonitor) to objectively detect motor changes together with the app. This will further support the reliability of the app. This study will provide evidence for the impact of the menstrual cycle on PD and help neurologists and patients to better manage PD symptoms related to these hormonal changes.

The brain networks controlling movement are complex, involving multiple areas of the brain. Some neurological disorders, like Parkinson's disease (PD) and essential tremor (ET), cause abnormalities in these brain networks. Deep brain stimulation is a treatment that is used to treat these types of neurological diseases and is thought to help patients by modulating brain networks responsible for movement. Levodopa medication is also used to modulate this brain networks in patients with PD. The overall objective is to develop a unified theory of basal ganglia thalamocortical (BGTC) circuit dynamics that accounts for disease symptomatology, movement, and their inter-relationship. The underlying hypothesis, is that the rigidity and bradykinesia of PD are fundamentally related to excessive functional coupling across nodes in the BGTC motor circuit impeding effective information flow. In this research, the investigator will take advantage of the unique opportunity provided by awake deep brain stimulation surgery to learn more about how the brain functions in a diseased state and how deep brain stimulation changes these networks to make movement more normal. The investigator will simultaneously assess cortical and subcortical electrophysiology in relation to clinical symptoms and behavioral measures and in response to deep brain stimulation, cortical stimulation, and pharmacologic therapy in patients undergoing Deep Brain Stimulation (DBS) implantation surgery.

The goal of this basic experimental study involving humans (BESH) protocol is to improve the understanding of neural mechanisms underlying visual hallucinations in Lewy Body diseases to inform future treatment developments.

A study to determine if BHV-8000 is efficacious, safe and tolerable in adults diagnosed with early Parkinson's disease. The study will consist of a 48-week double-blind treatment phase followed by a 48-week open-label phase.