Mirapex Er

This clinical study is being conducted to learn more about a new imaging drug called \[18F\]MK-0947, which is designed to help doctors see changes in the brain related to Parkinson's disease (PD). PD is a condition that affects movement, balance, and thinking. The drug works with a type of scan called PET (Positron Emission Tomography) to show areas of the brain where a protein called α-synuclein builds up. This buildup is linked to PD and other brain disorders. The main goal of this study is to find out if \[18F\]MK-0947 is safe for people and if it works well to show α-synuclein in the brain. The study will also look at how the drug moves through the body and how much radiation it gives off. Researchers hope this information will help develop better tools for diagnosing PD and tracking how it changes over time. Who can join? Adults who have PD or who are healthy may be able to take part. Participants will have screening tests to make sure they qualify. What does participation involve? People in the study will have PET scans, blood tests, and other safety checks. Some participants will also have an MRI scan. The study is divided into two parts: Part 1 looks at how the drug works in the brain of PD patients and healthy elderly participants, and Part 2 measures radiation levels in healthy participants. Why is this important? There is currently no cure for PD, and better imaging tools could help researchers develop new treatments. By joining this study, participants will help advance research that may improve care for people with PD and similar conditions in the future.

The purpose of this study is to investigate the use of ultra-low, anti-inflammatory doses of radiation therapy (RT) for the treatment of Parkinson's Disease (PD). In this study, the TrueBeam LINAC utilizes a linear accelerator (LINAC) for the delivery of radiation therapy. Dynamic conformal arc (DCA) therapy will be used to deliver a total of five (5) once-a-day radiation treatments (RT) using DaT-SPECT (Dopamine Transporter-Single-Photon Emission Computed Tomography) and MRI imaging to guide radiation treatment planning.

This study aims to evaluate the efficacy of community-based early detection and targeted interventions, including stem cell therapy and wearable non-invasive brain-computer interface (BCI) devices, for Mild Cognitive Impairment (MCI) in adults aged 55 years and older residing in U.S. urban and suburban communities. Primary objectives include assessing improvements in MCI detection rates, cognitive outcomes, and progression delay compared to standard care.

This study aims to evaluate neurophysiological responses and symptom changes in individuals with Restless Legs Syndrome (RLS) and/or chronic pain. Participants will undergo standard clinical assessments including EEG, EMG, h-reflex, SSEP, ERP, and TMS under varying SCS conditions.The study involves 4 arms. Arm 1 are individuals diagnosed with RLS and Healthy Controls. Arm 2 are individuals diagnosed with RLS and have an existing SCS. Arm 3 are individuals diagnosed with RLS and scheduled to receive a SCS. Arm 4 are individuals with chronic pain and have a SCS, but no diagnosis of RLS.

The goal of this study is to evaluate whether peroneal electrical nerve stimulation (PNS) using the TOMAC™ device is a feasible, acceptable, and safe non-pharmacologic intervention for managing Restless Legs Syndrome (RLS) during pregnancy. This pilot study will also collect preliminary information on symptom relief, sleep quality, and maternal-fetal safety associated with device use. The main questions the study aims to answer are: Is TOMAC™ PNS a feasible and acceptable intervention for RLS in pregnant individuals? Are there any maternal, fetal, or neonatal safety concerns with PNS use during pregnancy? What are the patterns of adherence, tolerance, and usability of the TOMAC™ device in this population? Participants will: Use a non-invasive TOMAC™ peroneal nerve stimulator during 30-minute sessions as needed, for 8 weeks. Complete questionnaires assessing feasibility, acceptability, symptom severity, and sleep quality (including AIM, IAM, FIM, IRLS, PGI-I, PSQI, ESS, FOSQ, and MOS-II). Wear an actigraphy monitor to collect objective sleep data at baseline and at 4 weeks. Attend scheduled follow-up visits and phone check-ins for maternal vital signs, uterine contraction and fetal monitoring, and neonatal outcome assessment. This is a prospective, open-label, single-arm pilot study enrolling 15 pregnant participants between 21 and 26 weeks' gestation. Findings will provide the first dataset on the feasibility, acceptability, and safety of TOMAC™ PNS in pregnancy and inform the design of a future randomized controlled trial.

The goal of this clinical trial is to learn if iron supplementation works to restless sleep in youth with ADHD. A second goal is to learn if iron supplementation helps to ease ADHD symptoms. The main questions that this trial aims to answer are: Does 3 months of iron supplementation treatment improve parent- and youth self-reported sleep difficulties more than placebo? Does 3 months of iron supplementation treatment improve sleep as measured by actigraphy more than placebo? Does 3 months of iron supplementation treatment improve parent-reported and/or objectively measured attention more than placebo? Researchers will compare over-the-counter iron supplementation treatment to a placebo (a look-alike substance that contains no drug) to see if iron supplementation works to treat sleep difficulties in youth with ADHD. Participants will: * Take iron supplements every day for 3 months * Visit the clinic once before treatment begins and once at the end of treatment to complete tests and rating scales related to sleep and attention * Wear motion-monitoring leg bands while sleeping for one 2-week period before treatment begins and one 2-week period at the end of treatment

The study aims to evaluate the burden of tau pathology in people with Sporadic and LRRK2 PD via in vivo imaging using the tau tracer, \[18F\]PI-2620, and a high resolution PET camera, NeuroEXPLORER.

The goal of this clinical trial is to learn if cognitive cueing (eg., prompting individuals to think about taking big-long steps while walking), either as a stand- alone intervention or combined with a personalized gait training video, can improve gait (walking), mobility, and balance confidence for individuals with Parkinson's Disease. The main questions it aims to answer are: 1. Does focusing on cognitive cues while walking improve gait, mobility, and balance confidence for individuals with Parkinson's Disease? 2. Does incorporating a personalized gait training video alongside cognitive cueing lead to amplified improvements in gait, mobility, and balance confidence for individuals with Parkinson's Disease? Researchers will compare how gait, mobility, balance confidence and quality of life change over time for participants when they practice walking with and without a cognitive cue alone, and when they practice with using a personalized gait training video. The researchers are also interested in how participation in this trial will affect quality of life and conscious attention to gait. Participants will * Complete walking trials on an instrumented mat that records data on their walking ability. These trials will be undertaken without a cognitive cue and while participants mentally rehearse a series of 3 cognitive cues (Take big long steps; Walk heel-toe; Stand up straight). * Be informed about which of the 3 cues best improved their walking and will receive a personalized gait training video for at home practice. * Complete online surveys that ask questions about their Parkinson's Disease, mobility, balance confidence quality of life and conscious attention to gait. * Visit the research facility 3 to 4 times during the study to have their gait (walking), mobility, balance confidence, quality of life and conscious attention to gait assessed and reassessed. * Practice both with and without their personalized video at home and keep a diary to record their practice sessions * Participate in a brief interview to discuss their experiences with the training and their perceptions of the effectiveness of cognitive cues and video-recorded feedback

The Goal of this study is to evaluate the safety, tolerability, and clinical responses following implantation of DSP-1083. Study enrolls both male and female patients in 2 cohorts. This study will be held in approximately 5-8 study sites in United States

The investigators propose a Phase I single surgical-center, double-blinded randomized parallel clinical trial involving bilateral autologous peripheral nerve tissue (PNT) delivery into the NBM or the alternate target also affecting cognition in this population, the substantia nigra (SN), to address "repair cell" support of these areas. Twenty-four participants with idiopathic Parkinson's Disease (PD) who have selected, qualified and agreed to receive as standard of care deep brain stimulation (DBS) will be enrolled and randomly allocated to receive bilateral PNT deployment to either the NBM or SN at the time of DBS surgery. Participants will be allocated equally among both assignments over the course of three years (8 Year 1, 10 Year 2, 6 Year 3). Participants will be evaluated for neurocognitive, motoric function, activities of daily living, and quality of life at enrollment before surgery, two-weeks after surgery, and 6, 12, and 24 months after surgery.

The purpose of this study is to evaluate the safety, tolerability, and PK/PD of LY3962681 in healthy volunteers and patients with Parkinson's disease. The study will be comprised of two parts, the Single Ascending Dose (SAD) study and the Multiple Ascending Doses (MAD) study. During the SAD portion of the study, healthy volunteers will receive a single dose of LY3962681 or placebo (artificial cerebrospinal fluid (aCSF), no active drug) given into the spinal fluid. During the MAD portion of the study, patients with Parkinson's disease will receive two doses of either LY3962681 or placebo (aCSF) administered into the spinal fluid. * The treatment period in the SAD study will be 1 day. The treatment period in the MAD study will be 2 days, 12 to 24 weeks apart. * The follow-up period in the SAD study will be up to 52 weeks. The follow-up period in the MAD study will be up to 52 weeks post Dose 2.

More than 110,000 US Veterans living with Parkinson's disease (PD) currently receive PD-related care and services from the VA. Fall prevention is a priority for Veterans living PD. Gait disturbances are a major cause for functional dependence and the largest risk factor for falls, institutionalization, and death in PD. This SPiRE addresses the need to advance nonpharmacological rehabilitative health care of Veterans and maximizing functional outcomes by developing a non-invasive, neuromodulatory transcutaneous cervical Vagal Nerve Stimulation as an at-home intervention to improve gait and balance. This pilot clinical trial will assist with future efforts and priorities of the VA to prolong independent living and quality of life by minimizing gait and balance dysfunction experienced by Veterans living with PD.