321 Clinical Trials for Various Conditions
The research study is being conducted to better understand parts of the human brain called the cortex, basal ganglia, thalamus, and cerebellum in patients with movement disorders (such as Parkinson's disease, essential tremor, dystonia, or ataxia). These brain structures are involved in movement disorders. This study attempts to better understand the brain electrical activity associated with these disorders, both in patients with and without deep brain stimulation (DBS). Recordings are made from the scalp with a noninvasive electrode and/or through the DBS stimulator if the participant has a stimulator model that is able to sense brain activity. These recordings are analyzed along with measures of movement disorder symptoms to identify brain signal signatures of symptoms.
Background: Cerebral palsy (CP) is the most common motor disorder that affects children. People with CP have weak muscles; they may have trouble controlling the movements of their arms and legs. Researchers have been developing braces called robotic exoskeletons for people with CP. These devices can adapt to the person s movements and help them move better. This natural history study will explore new technologies that may tell us more about how people with CP move and improve how these exoskeletons work. Objective: To test new technologies to measure people s movements and brain function while they move with and without a robotic exoskeleton. Eligibility: People aged 5 to 25 years with CP. Healthy volunteers are also needed. Design: Participants will have 3 to 5 clinic visits in 2 months. Participants will be fitted with an exoskeleton that will be worn on one of their legs. At each visit, participants will be asked to move their wrist, ankle, and knee while the following measurements are taken: Ultrasound. A bar will be placed against the skin. It will send soundwaves into the body to take pictures of the muscles. Electroencephalography (EEG). Participants will wear a cap with sensors. Their brain waves will be recorded. Electromyography (EMG). Small metal discs will be taped to the skin. They will measure electrical activity of muscle. Participants will flex and extend each joint (wrist, ankle, or knee) on one side of their body. These movements will be done on their own and while assisted by two devices: Functional electrical stimulation (FES). Small adhesive pads will be placed on the skin and electric. Pulses will stimulate muscles to help move the limb. This will be done for the wrist, ankle and knee. Robotic Exoskeleton. A leg brace will be placed on one limb with a motor that will help move the knee. The exoskeleton can be used with or without FES. Participants will also walk on a treadmill at their own pace. Photographs and videos will record how they move.
The purpose of this study is to test the safety of placing Deep Brain Stimulators (DBS) in a part of the brain called the cerebellum and using electrical stimulation of that part of the brain to treat movement symptoms related to cerebral palsy. Ten children and young adults with dyskinetic cerebral palsy will be implanted with a Medtronic Percept Primary Cell Neurostimulator. We will pilot videotaped automated movement recognition techniques and formal gait analysis, as well as collect and characterize each subject's physiological and neuroimaging markers that may predict hyperkinetic pathological states and their response to therapeutic DBS.
In this pilot study, the investigators will evaluate care delivery via telemedicine to individuals with drug-induced movement disorders (DIMDs). DIMDs can be disabling, and prevention is important; but these disorders are often under-reported, under-recognized and poorly managed. Interprofessional telemedicine for movement disorders is feasible and may provide similar care as in-person visits; however, the majority of studies to date have shown benefit in Parkinson's disease and further validation in other movement disorders is necessary. In this randomized controlled trial the aim is to study the acceptability, feasibility, and patient and clinician outcomes when a neurological consultation is provided for patients with DIMDs either in-person or through telemedicine. The investigators will apply the evaluation framework RE-AIM (Reach and Effectiveness, Adoption, Implementation, and Maintenance) to comprehensively assess the factors that may impact study success and program implementation. Mixed methods will be implemented to gather outcome data from mental health clinicians that refer patients and the patient participants.
Background: People with cerebral palsy, spina bifida, muscular dystrophy, or spinal cord injury often have muscle weakness and problems controlling how their legs move. This can affect how they walk. The NIH has designed a robotic device (exoskeleton) that can be worn on the legs while walking. The wearable robot offers a new form of gait training. Objective: To learn whether a robotic device worn on the legs can improve walking ability in those with a gait disorder. Eligibility: People aged 3 to 17 years with a gait disorder involving the knee joint. Design: Participants will be screened. They will have a physical exam. Their walking ability will be tested. Participants will have markers taped on their body; they will walk while cameras record their movements. They will undergo other tests of their motor function and muscle strength. The study will be split into three 12-week phases. During 1 phase, participants will continue with their standard therapy. During another phase, participants will work with the exoskeleton in a lab setting. Their legs will be scanned to create an exoskeleton with a customized fit. The exoskeleton operates in different modes: in exercise mode, it applies force that makes it difficult to take steps; in assistance mode, it applies force meant to aid walking; in combination mode, it alternates between these two approaches. During the third phase, participants may take the exoskeleton home. They will walk in the device at least 1 hour per day, 5 days per week, for 12 weeks. Participants walking ability will be retested after each phase....
The purpose of this study is to evaluate whether New Touch Digital (NTD) NeuroRPM software installed on wearable devices can objectively measure and track symptoms in patients with Parkinson's disease.
The importance of physical activity for individuals with movement disorders, including Parkinson disease and Essential tremor, has been established. Barriers including patient engagement continue to limit effectiveness. Golf requires skills found challenging to individuals with movement disorders. This study seeks to assess the feasibility and effectiveness of an outpatient-based rehabilitation program incorporating golf skills and activities on functional measures and quality of life.
The purpose of this protocol is to create an active natural history cohort of patients with degenerative movement disorders, tracked in a clinical setting with clinical rating scales and neuroimaging. The overarching rationale is that neurodegenerative diseases may be heterogeneous, complex disorders. A new way of performing clinical trials in these patients may be in order and this protocol aims to build a longitudinally tracked clinical trial-ready cohort of patients. The purpose of this protocol is to establish an active natural history cohort of patients with neurodegenerative movement disorders who are deeply phenotyped and "clinical trial ready" across Mass General Brigham. After a thorough clinical diagnostic evaluation (this may include clinically indicated testing, for example MRI, FDG-PET, MIBG scan, polysomnography, genetic testing, autonomic function tests, inflammatory tests, skin biopsy) the investigators aim to achieve this through: 1. Longitudinal tracking of clinical progression through use of clinical scales including at the present time: UMSARS, BARS, MoCA and UPSIT, PROM, MDS-NMS, UPDRS, and SARA 2. Longitudinal tracking of disease progression through use of neuroimaging including at the present time: TSPO-PET and 3D MRI (see section 1.3) This is a pilot study designed to track patients with neurodegenerative movement disorders across Mass General Brigham through MRI and PET imaging modalities and clinical measures. Figure 5 represents the study design in detail. In short, subjects will be asked to visit Mass General Brigham every 6-9 months over the course of 18 months for imaging and clinical evaluation.
In this study, researchers will learn more about a study drug called BIIB122 in participants with early-stage Parkinson's disease (PD). The study will focus on participants with a specific genetic variant in their LRRK2 gene. The main question researchers are trying to answer is if taking BIIB122 slows the worsening of PD more than placebo in the early stages of PD. To help answer this question, researchers will use a questionnaire called the Movement Disorder Society-Unified Parkinson's Disease Rating Scale, also known as the MDS-UPDRS. * The MDS-UPDRS measures impairment and disability in people living with PD. It was created in the 1980s and is one of the most used rating scales for PD symptoms. * The MDS-UPDRS has 4 parts, and a higher score means more severe PD symptoms. * Part I assesses non-motor experiences of daily living, including but not limited to memory loss, problems sleeping, pain, depression, and anxiety. * Part II measures motor experiences of daily living. * Part III is the results of a motor symptoms exam by a medical professional. * Part IV records PD complications caused by motor symptoms. Researchers will also learn more about the safety of BIIB122. A description of how the study will be done is given below. * Participants will take BIIB122 or a placebo as tablets by mouth. A placebo looks like the study drug but contains no real medicine. * Participants will be in the study for 103 weeks to 187 weeks. This includes the screening and follow-up periods. * Participants will take BIIB122 or placebo 1 time a day for 96 to 180 weeks. * Participants can continue to take certain medications for PD. Participants must be on the same dose of medication for at least 90 days before the study begins. * Participants will visit the clinic less often as the study continues, ranging every 4 weeks to every 24 weeks.
Background: A movement disorder is a condition that causes a person s body to move in ways that are not normal. There are different types. Some disorders cause movements people can t control, such as tics or shaking. Some cause reduced or slow movements. Movement disorders can cause disability in people. Sometimes members of the same family will have the same disorder. Researchers want to learn more about how people develop these disorders. This research could lead to better treatments. Objective: This natural history study will collect data on people with different types of movement disorders. It will also collect data on their family members. The data will support further research. Eligibility: Children and adults aged 2 years and older who have a movement disorder. Family members of people with movement disorders are also needed. Design: Participants will undergo screening. They will have a physical exam. Researchers will look at their existing medical images. Any photographs or videos of their movements will also be reviewed. Most participants will come to the NIH clinic for only 1 visit. They will answer questions about their condition. They will have normal tests used to diagnose their condition. They may have blood tests and different types of imaging scans. They may have tests to see how well their nerves function. The tests used will depend on the type of disorder they have. Family members will have some of the same tests as people with disorders. Participants will not receive any new treatments. Some participants may be asked to return for a follow-up visit. Up to 4000 people may participate.
Background: Functional movement disorders (FMD) involve involuntary movements that are not due to a recognized neurological or medical cause. FMD can cause major disability. Researchers want to learn more to create better treatments for FMD. Objective: To test whether non-invasive brain stimulation using transcranial magnetic stimulation (TMS) improves FMD symptoms. Eligibility: People between the ages of 18 and 80 who have been diagnosed with FMD by a neurologist. Design: Participants will be randomly assigned to one of two groups. One group is an active brain stimulation group and the other is a sham brain stimulation group. Participants will have a baseline visit. This will include: Neurological exam Questionnaires Urine test Brain MRI: Participants will lie in a machine that takes pictures of the body. They will be asked to respond to images on a screen while in the scanner. Within 2 weeks of the baseline visit, participants will begin 5 daily sessions of TMS. The active group will have stimulation delivered to the brain via a coil. In the sham group, a dummy coil will be used that will not deliver stimulation. A total of three 3-minute cycles will be done in one visit. There will be 20-minute breaks between the cycles. Participants will have visits 1 month, 2 months, and 6 months after their last day of TMS. Their FMD symptoms will be evaluated. They will complete health questionnaires. These visits can be in person or virtual.
The purpose of this study is conduct a pilot open trial of a web-based cognitive bias modification intervention to reduce anxiety symptoms in persons with Huntington's disease and persons with Parkinson's disease.
Vibration applied to the skin has been anecdotally reported to potentially improve motor control in patients with movement disorders including Parkinson's disease, however few devices have been studied formally. In this study, the investigators will test the effect of skin surface vibration applied non-invasively to patients with movement disorders to determine if there are any beneficial effects on common tasks of motor control and/or abnormal motor symptoms in patients with Parkinson's disease (PD), essential tremor (ET), and dystonia.
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.
Diagnosing Parkinson's disease (PD) depends on the clinical history of the patient and the patient's response to specific treatments such as levodopa. Unfortunately, a definitive diagnosis of PD is still limited to post-mortem evaluation of brain tissues. Furthermore, diagnosis of idiopathic PD is even more challenging because symptoms of PD overlap with symptoms of other conditions such as essential tremor (ET) or Parkinsonian syndromes (PSs) such as progressive supranuclear palsy (PSP), multiple system atrophy (MSA), corticobasal degeneration (CBD), or vascular Parkinsonism (VaP). Based on the principle that PD and PSs affect brain areas involved in eye movement control, this trial will utilize a platform that records complex eye movements and use a proprietary algorithm to characterize PSs. Preliminary data demonstrate that by monitoring oculomotor alterations, the process can assign PD-specific oculomotor patterns, which have the potential to serve as a diagnostic tool for PD. This study will evaluate capabilities of the process and its ability to differentiate PD from other PSs with statistical significance. The specific aims of this proposal are: To optimize the detection and analysis algorithms, and then to evaluate the process against neurological diagnoses of PD patients in a clinical study.
The purpose of this research study is to see if the level of serum ferritin differs based on how often oral iron (in the form of ferrous sulfate) is given to children with restless leg syndrome/periodic limb movement disorder.
The purpose of this study is to investigate the clinical correlates of the effects of the COVID-19 pandemic on patients with Functional movement disorder (FMD) and Parkinson s Disease (PD). Primary objectives: To evaluate the change in neurological symptoms domain of the survey between pre and post-COVID 19 in FMD and PD patients. Secondary objectives: * To evaluate the change in total score of the survey between pre and post COVID 19 in FMD and PD patients * To evaluate the change in other symptom domains of the survey between pre and post COVID 19 in FMD and PD patients. Domains include: Mood/Energy, sleep, symptoms of abnormal movements related or unrelated to primary disease, physical health and exercise related change Exploratory objectives: * To evaluate whether there is a modifying effect of disease group in the changes in total score or symptom domains * To evaluate whether there is a relationship between disease severity and changes in total score or symptom domains * To evaluate whether there is a correlation between changes across symptom domains * To evaluate whether there is a correlation in raw score across symptom domains within each period Research Methods: Data will be solely collected through the use of online instruments via CiSTAR as a designed questionnaire. Questionnaire items A questionnaire aimed at determining the effects of the COVID 19 pandemic and subsequent isolation on functional state of patients with FMD and PD. The questionnaire items include: Items investigating Mood/Energy before and after COVID 19 out break Items investigating Sleep habits before and after COVID 19 out break Items investigating Neurological symptoms before and after COVID 19 out break Items investigating daily functioning before and after COVID 19 out break Items investigating Exercise habits before and after COVID 19 out break No questionnaire items will be actionable , which are items that would identify an imminent risk for participant safety requiring urgent and immediate medical or psychiatric
Investigators will enroll patients who are already selected to undergo deep brain stimulation surgery based on standard of care. The surgical implantation of the leads will be based on standard of care and will be completed with FDA-approved leads that are routinely used at Cleveland Clinic. The pulse generators (i.e. the battery) will also be standard. The research will characterize spontaneous and task-related changes in brain activity recorded from these regions alone and in relation to novel paradigms / settings of stimulation to learn how such paradigms impact both the symptoms of patients with Parkinson's disease and the underlying neural activity of the target brain region. Of particular interest is to learn if the novel paradigms of stimulation will have a lower impact on cognitive function than current settings of stimulation.To date, current DBS settings are continuous. That is, stimulation runs at approximately 200 pulses per second, all day long, day and night. The novel settings that investigators will study are part of a translational pipeline at Cleveland Clinic. Dr. Ken Baker and Dr. Machado are partners in the lab and in clinical research. Dr. Baker has completed preclinical research that has shown that it is possible to achieve excellent relief of parkinsonian symptoms with intermittent types of stimulation known as coordinated reset. In other words, Dr Baker found that using a lower dose of stimulation in an intermittent fashion can maintain the same level of symptom control. Furthermore, a lower dose of stimulation could have less effects on cognitive symptoms. In order to test these novel paradigms of stimulation, investigators will study patients immediately after DBS and over time. The immediate research will be done starting on the third day after implantation of the DBS lead(s), having the systems externalized for nine days. The long-term research will be conducted with patients already fully implanted and healed from surgery. In addition to evaluating for motor and cognitive tasks using computer based assessments, investigators will utilize non-invasive electrophysiological measures including EEG, EMG, MEG, and wearable accelerometer/gyroscopes to better characterize the effects of stimulation settings.
The purpose of the research is to better understand the motor behavior of individuals in health and disease. The specific purpose of this project is to identify if we can utilize a smartphone to diagnose different movement disorders and monitor their symptoms. A. Objectives 1. Estimate symptom severity of Essential tremor (ET), Parkinson's disease (PD), Huntington's disease (HD), Primary focal dystonia (PFD), spinocerebellar ataxia (SCA), and Functional movement disorders (FMD) using a smartphone-based application 2. Differentiate individuals with the different movement disorders from healthy controls based on features from the smartphone data 3. Differentiate individuals with a specific movement disorder from people with other movement disorders based on features from the smartphone data B. Hypotheses / Research Question(s) We hypothesize that we can estimate the severity of symptoms using a smartphone application and that, using those estimates, we can differentiate individuals with movement disorders from healthy controls and from people with other movement disorders.
The purpose of this study is to investigate the brain activity associated with motor and non-motor symptoms of movement disorders, including Parkinson's disease (PD) and essential tremor. These movement disorders commonly have significant non-motor features, such as depression, cognitive and memory impairment, decreased attention, speech and language disturbances, and slower processing speeds. The investigators are interested in the brain activity associated with these motor and non-motor symptoms, and propose to investigate changes in brain activity while the investigators perform recordings of the surface and deep structures of the brain, in addition to the typical recordings the investigators perform, during routine deep brain stimulation (DBS) surgery.
Sante Fe is an investigation of a new technique to distinguish between different types of movement disorders, specifically organic versus functional, by observing changes in involuntary movements in two different situations.
The purpose of this study is to investigate the potential of using mirror box therapy as a therapeutic technique amongst patients with functional movement disorders. It is hypothesized that a brief, single, in-office mirror therapy session will lead to a noticeable decrease in FMD-related involuntary movements.
Background: Functional movement disorder (FMD) causes involuntary movements, such as spasms, shaking, or jerks. These symptoms are not due to a recognized neurological or medical cause. Researchers want to better understand how the brain works to cause these symptoms. Objective: To test if intermittent theta burst stimulation (iTBS) affects brain areas involved in FMD symptoms. Also, to look at the effect of iTBS on mood and motor symptoms. Eligibility: Right-handed people ages 18-65 who have FMD and participated in protocol 07-N-0190 Design: Participants will have 4 visits. In Visit 1, participants will be screened with: Medical history Physical exam Urine test Questionnaires Visit 1 might also include a brain MRI and functional MRI. The MRI scanner is a cylinder surrounded by a strong magnetic field. They will lie on a table that can slide in and out of the cylinder. For the functional MRI, they will be asked to perform tasks during the MRI scan. Visit 2 will be 1-2 weeks after Visit 1. Visits 2, 3, and 4 will be no more than 48 hours apart. These include: Electromyography: Small electrodes are taped to the skin. Muscle activity is recorded while participants receive magnetic stimulation of the brain. Transcranial magnetic stimulation and iTBS: A wire coil is held on the scalp. A brief electrical current passes through the coil and creates a magnetic pulse to stimulate the brain. During iTBS, participants will sit quietly and watch a nature documentary. They will wear earplugs and a cap. MRI Functional MRI Questionnaires
This is a two-center (University of Colorado, University of California San Francisco) community-based comparative effectiveness study of outpatient palliative care for Parkinson's disease (PD) and related disorders (progressive supranuclear palsy (PSP), corticobasal degeneration (CBD), multiple systems atrophy (MSA), Lewy Body Dementia (LBD). In September 2018, the study was amended to also include Alzheimer's disease (AD) and related disorders (Frontotemporal Dementia (FTD), Primary Progressive Aphasia (PPA), Vascular Dementia). It will utilize a randomized stepped-wedge design to compare patient and caregiver outcomes between usual care in the community versus usual care augmented by palliative training and telemedicine support to provide other resources (e.g. social work).
The primary objective of the study was to evaluate the efficacy and safety of UX007 in the treatment of disabling paroxysmal movement disorders associated with Glut1 DS.
The purpose of the study is to determine if non-invasive measurements of brain waves from the skin called electroencephalography (EEG) can predict whether the brain stimulator will help your symptoms. Our goal is to obtain these brain wave measurements with patients both awake and under general anesthesia, and then to evaluate which brain wave patterns are associated with clinical improvement to determine if they could be useful for predicting whether the surgery will work. If such predictive measures were established based upon the findings of this study, they could be used in the future to improve surgical outcomes in the following ways: (1) to help guide surgical targeting in the operating room awake or under anesthesia, (2) to guide post-operative programming in clinic, and (3) and to develop potential feedback systems for "automatic" programming of the brain stimulator system at home.
Investigators hypothesize that there are specific characteristic of each cognitive and motor condition that can be defined using brains scans.
Background: - In deep brain stimulation (DBS), a device called a neurostimulator is placed in the chest. It is attached to wires in parts of the brain that affect movement. DBS might help people with movement disorders like Parkinson s disease (PD), dystonia, and essential tremor (ET). Objective: - To provide DBS treatment to people with some movement disorders. Eligibility: - Adults 18 years and older with PD, ET, or certain forms of dystonia. Design: * Participants will be screened with medical history and physical exam. They will have blood and urine tests and: * MRI brain scan. The participant will lie on a table that slides in and out of a metal cylinder with a magnetic field. They will be in the scanner about 60 minutes. They will get earplugs for the loud noises. During part of the MRI, a needle will guide a thin plastic tube into an arm vein and a dye will be injected. * Electrocardiogram. Metal disks or sticky pads will be placed on the chest, arms, and legs. They record heart activity. * Chest X-ray. * Tests of memory, attention, concentration, thinking, and movement. * Eligible participants will have DBS surgery. The surgery and hospital care afterward are NOT part of this protocol. * Study doctors will see participants 3 4 weeks after surgery to turn on the neurostimulator. * Participants will return every month for 3 months, then every 3 months during the first year, and every 6 months during the second year. Each time, participants will be examined and answer questions. DBS placement will be evaluated with MRI. The neurostimulator will be programmed. At two visits, participants will have tests of movements, thinking, and memory.
The purpose of this study is to record electrical brain activity during DBS surgery and after DBS surgery using the Medtronic Activa PC+S deep brain stimulation (DBS) system, a modified DBS pulse generator. The goal of the study is to investigate if the electrical brain activity can help customize DBS therapy.
Background: There are two basic types of movement disorders. Some cause excessive movement, some cause slowness or lack of movement. Some of these are caused by mutations in genes. On the other hand, dementia is a condition of declining mental abilities, especially memory. Dementia can occur at any age but becomes more frequent with age. Researchers want to study the genes of families with a history of movement disorders or dementia. They hope to find a genetic cause of these disorders. This can help them better understand and treat the diseases. This study will not be limited to a particular disorder, but will study all movement disorders or dementias in general. This study will perform genetic testing to identify the genetic causes of movement disorders and dementia. Today, genetic testing can be done to analyze multiple genes at the same time. This increases the chances of finding the genetic cause of movement disorders and dementias. Objectives: To learn more about movement disorders and dementia, their causes, and treatments. Eligibility: Adults and children with a movement disorder or dementia, and their family members. Healthy volunteers. Design: Participants will be screened with medical history and blood tests. Some will have physical exam. Participants will give a blood sample by a needle in the arm. This can be done at the clinic, by their own doctor, or at home. Alternatively, a saliva sample may be provided if a blood sample cannot be obtained. Participants can opt to send an extra blood sample to a repository for future study. Genetic test will be done on these samples. The samples will be coded. The key to the code will remain at NIA. Only NIA investigators will have access to the code key. Participants can request to receive results of the tests. Participation is generally a single visit. Participants may be called back for extra