ALS (Lou Gehrig's disease) clinical trials — recruiting now

10-20% of patients with ALS have anti-NRIP autoantibody and the titer of anti-NRIP autoantibody is correlated with motor functional decline and mortality in ALS. The PALADIN2 clinical trial is a single arm study, which intends to enroll 20 ALS patients having anti-NRIP autoantibody in plasma. Patients will receive 3 courses of plasmapheresis per 3 months in order to maintain low concentration of anti-NRIP autoantibody in plasma. The study will follow up these patients for another 6 months after plasmapheresis. This project will potentially confirm the efficacy and safety of plasmapheresis for ALS patients having anti-NRIP autoantibody.

The goal of this clinical trial is to learn about the effect of communicative interaction on verbal communication in people with amyotrophic lateral sclerosis (ALS) and their caregivers. The question is, What are the effects of communicative interaction on verbal communication in people with ALS when they interact with their caregivers and does this change over time? Participants will read words and sentences while they are interacting with their caregivers.

The CortiCom system consists of 510(k)-cleared components: platinum PMT subdural cortical electrode grids, a Blackrock Microsystems patient pedestal, and an external NeuroPort Neural Signal Processor. Up to two grids will be implanted in the brain, for a total channel count of up to 128 channels, for six months. In each participant, the grid(s) will be implanted over areas of cortex that encode speech and upper extremity movement.

The New York Stem Cell Foundation (NYSCF) Research Institute is performing this research to accelerate diverse disease research using cells from the body (such as skin or blood cells) to make stem cells and other types of cells, conduct research on the samples, perform genetic testing, and store the samples for future use. Through this research, researchers hope to identify future treatments or even cures for the major diseases of our time.

A prospective and retrospective cohort study of about five years will be performed on blood and cerebrospinal fluid samples taken for diagnostic reasons from recruited patients within the Neuromed Neurology Unit. Subjects with other chronic neurodegenerative diseases such as Amyotrophic lateral sclerosis (ALS), Alzheimer's disease (AD) and Parkinson's disease (PD), and healthy subjects subjected to blood sampling and / or lumbar puncture for clinical reasons will be recruited As control groups.

A Not for Profit Phase II Study to Evaluate Safety, Efficacy and Biomarkers secondary endpoints of Human Neural Stem cell intracerebroventricular transplantation in amyotrophic lateral sclerosis patients: a randomized, placebo controlled, triple blind study. This is an approximate 24-months study (PHASE B) consisting, per patient, of a 30-day screening period, 12-month enrollment and follow up period. A preliminary 3+3 dose-escalation open-label phase (PHASE A) will be performed in order to test the toxicity of the two proposed cell doses. The study will be stopped when all the subjects included in the treatment period complete the study visits. The study uses an ATMP, for that reason all the patients follow up will be prosecuted long life.

The goal of this clinical trial is to evaluate the impact of non-invasive electrical stimulation, when placed on the facial muscles can reduce facial pain and improve jaw mobility, and chewing in individuals with Amyotrophic Lateral Sclerosis (ALS) and Primary Lateral Sclerosis (PLS). The secondary goal is to evaluate the impact of non-invasive electrical stimulation on patient reported difficulty performing oral hygiene tasks in individuals with ALS and PLS. Participants will attend one in-person clinic visit and participate in one telephone interview 24 hours after the treatment. The clinic visit will include pre-intervention assessments, a single 30-minute treatment of electrical stimulation followed by post-intervention assessments. The assessments will include a self-rating of jaw and facial pain, a range of motion test where participants will be asked to open their jaw as wide and as far to the side as possible, and a chewing efficiency test using a saltine cracker. Twenty-four hours later, participants will receive a follow-up phone call to self-rate their facial pain and report any difficulty performing oral hygiene tasks. The treatment consists of a single 30-minute electrical stimulation session. Electrode pads will be placed on the participant's facial region, specifically over the masseter muscle belly and the TMJ area, while the participant is seated comfortably. The pads will be connected to an FDA-approved electrical stimulator, and the current will be adjusted to the participant's comfort level. Once set, the participant will remain seated for 30 minutes. At the end of the session, the stimulator will be turned off and the electrode pads removed.

Amyotrophic Lateral Sclerosis (ALS) is the most common motor neuron disease in adults. This longitudinal study involves three cohorts of participants: patients with sporadic or hereditary ALS, asymptomatic individuals carrying pathogenic mutations responsible for ALS, and control subjects. In this study, a skin biopsy and blood sampling will be performed at the initial visit (M0), then at M12 (+/- 2 months) for patients, and at M36 (+/- 12 months) for asymptomatic carriers of pathogenic mutations. The aim of this research is to model ALS pathology using fibroblasts derived from the patients' skin biopsies.

Amyotrophic lateral sclerosis (ALS) is a rare neuromuscular disease that occurs in adults. It is characterized by a progressive degeneration of the first and second motor neurons leading to muscle failure. In its spinal form, ALS manifests by a progressive worsening of limb involvement, whereas the bulbar form presents with swallowing disorders, dysarthria and feeding difficulties. Respiratory impairment is the most serious feature of ALS. Phrenic nerve damage causes diaphragmatic weakness, which inevitably leads to chronic restrictive respiratory failure. At the stage of symptomatic nocturnal or diurnal alveolar hypoventilation, non-invasive ventilation (NIV) prolongs survival while improving quality of life by relieving respiratory symptoms. The indication for the initiation of NIV is based on the appearance of respiratory symptoms but also on the demonstration of diaphragmatic insufficiency. A quarterly follow-up of diaphragmatic function has been recommended by the French Health Authority since 2006. It is based on functional respiratory explorations (VC in sitting and lying position, measurement of maximal inspiratory pressure) and screening for diurnal or nocturnal hypoventilation with the measurement of PaCO2 or the nocturnal recording of SpO2. Access to these examinations remains limited and they are sometimes complex to perform (in particular issues with mouth occlusion during respiratory manoeuvres in case of bulbar damage). Thus, only 60% of patients undergo a complete evaluation. Moreover, these explorations are only late markers of diaphragmatic dysfunction, and it has recently been shown that they do not correlate with histological diaphragmatic amyotrophy. The development of new, reliable, and easily available tools for the evaluation of diaphragmatic function, and that are capable of detecting diaphragmatic insufficiency early in the course of the disease, are therefore necessary. Such tools would make it easier to implement NIV at the optimal time, preventing episodes of acute respiratory distress. Recently, diaphragmatic ultrasound has appeared in the ICU as a new tool for assessing diaphragmatic function. It has the advantage of being highly available, inexpensive, non-irradiating, quick to perform, reproducible and very sensitive and specific for the diagnosis of diaphragmatic dysfunction. In ALS, few studies have investigated the contribution of ultrasound for the diagnosis or follow-up of diaphragmatic dysfunction. In addition, no study so far has compared diaphragmatic ultrasound to complete pulmonary function test (PFT) data or to direct measurement of diaphragmatic pressure (Pdi). Very few publications report the how the diaphragm changes on ultrasound imaging during the disease. Moreover, these studies do not analyse the interest of diaphragmatic ultrasound in the prediction of progression towards respiratory failure with respiratory support, or death. Finally, these studies use different ultrasound measurements of the diaphragm (stroke, thickness, thickening fraction, and thickening fraction ratio, among others) rather than a simple, consensual parameter. The aim of this study is to describe the evolution of diaphragmatic ultrasound parameters, to identify the parameter that best correlates with other respiratory measures (PFT, PaCO2, nocturnal oximetry) and to determine the prognostic value of diaphragmatic ultrasound in predicting the initiation of NIV or death at 6 and 12 months.

The goal of this study is to use ultra-high-resolution (UHR) PET imaging to better understand how the brain and spinal cord change in healthy aging and in neurological and psychiatric disorders such as Alzheimer's disease (AD), Parkinson's disease and related movement disorders, amyotrophic lateral sclerosis (ALS), and psychotic disorders. Researchers will use the NeuroExplorer PET/CT system, a new scanner that can show very small structures in the brain and spinal cord in much more detail than regular PET. The main questions this study aims to answer are: * How do small but important brain regions (like the locus coeruleus, substantia nigra, and thalamic nuclei) change in healthy aging? * What early brain changes occur in neurodegenerative and psychotic disorders, and can they help improve early diagnosis? Participants will: * Undergo PET and MRI brain scans using different tracers that measure brain metabolism (18F-FDG), synaptic density (¹⁸F-SynVesT-1), dopamine transporters (¹⁸F-PE2I), and tau protein buildup (¹⁸F-MK6240). * Complete cognitive and clinical assessments related to memory, mood, and motor or psychiatric symptoms, depending on their group. This study will include healthy volunteers and patients with mild cognitive impairment due to Alzheimer´s disease, ALS, Parkinson's disease and related disorders, or psychotic disorders. The results will help create detailed brain imaging maps for healthy aging and identify early biomarkers for different diseases to support better diagnosis and treatment in the future.

Amyotrophic Lateral Sclerosis (ALS) is a nervous system disease that causes muscle weakness and rapidly progresses to the loss of mobility and functionality. Studies suggest that High-Definition Transcranial Direct Current Stimulation (HD-tDCS) is a technique for modulating motor cortical hyperexcitability. However, evidence on the use of HD-tDCS as a neuromodulator of the diaphragmatic motor cortex in people with ALS is inconclusive.

The purpose of this study is to evaluate safety, effect on cramps, function and quality of life of ranolazine versus placebo for the treatment of ALS.

The investigators will evaluate a new powered neck exoskeleton in patients with amyotrophic lateral sclerosis (ALS) to understand whether this device allows adequate head range of motion and achieves satisfaction from users. In this small cross-sectional device feasibility study, participants will be enrolled from the ALS clinic at the University of Utah Hospital. After obtaining written consent, participants will perform tasks using the neck exoskeleton. Tasks include computerized tracking tasks and simulated activities of daily living. Breaks will be added between tasks to avoid fatigue. Head-neck kinematics will be recorded, and range of motion will be computed. Participants will also report their satisfaction of the device.

Amyotrophic lateral sclerosis (ALS) has been traditionally considered incurable and untreatable. But starting in the 1990s with the introduction of Riluzole, therapies are being discovered and ultimately approved for slowing disease progression. Many pharmaceutical companies continue to seek new therapeutic approaches. One critical aspect of all clinical trials is the need track to progression sensitively to identify the impact of therapy. Tools to track ALS progression must be convenient, objective, require minimal training, be easily standardized, cost-efficient, and have the potential to be applied effectively at home. There has been a push to identify accurate, objective biomarkers of ALS progression. In this study, the investigators propose to use Electrical impedance myography (EIM) to evaluate the progression of the disease. Work has shown that the EIM 50 kilohertz (kHz) phase value from one or more muscles, followed sequentially, can serve as an effective overall biomarker for assessing the rate of ALS progression for a single person.

Functional Outcomes and Control Using Synchron BCI - Australia (FOCUS-AUS)

The specific aims of this study are to: 1. Determine if a painless and quick measurement of muscle activity using surface electrodes can help with the diagnosis of ALS. Specifically, we ask if a measure of intermuscular coherence (IMC-βγ), when added to current diagnostic criteria (Awaji criteria), can differentiate ALS from mimic diseases more accurately and earlier than currently possible. 2. Characterize IMC-βγ in neurotypical subjects by age, sex, race, and ethnicity. 3. Follow a cohort of ALS patients longitudinally to determine if IMC-βγ changes with ALS disease progression and whether such changes correlate with functional and clinical scores, or survival.

In this study, we will evaluate how solo, naive listeners perceive the speech of people with amyotrophic lateral sclerosis (ALS) and age-matched speakers produced across interactive and non-interactive contexts with an unfamiliar, naive interlocutor.

The purpose of this study is to explore the genetic causes relevant for ALS development in Norway.

The CAN-PRIME Study is to test the safety and functionality of Neuralink's N1 Implant and R1 Robot in people who have difficulty moving their arms and legs (tetraparesis or tetraplegia). The N1 Implant is a small, wireless device placed in the skull. It connects to tiny threads inserted into the brain by the R1 Robot, which is a machine designed to carefully place these threads. This study will help researchers learn how well the implant and robot work and if they are safe for use.

In this study, researchers will learn more about the safety of tofersen, also known as Qalsody®. This is a drug available for doctors to prescribe for participant with a certain type of amyotrophic lateral sclerosis, also known as ALS. This type is in participant who have a mutation in the superoxide dismutase 1 gene, also known as SOD-1. This is known as an "observational" study, which collects health information about study participants without changing their medical care. Participants for this study will be found using 2 different groups of study research centers that help provide clinical care for participant with ALS. These groups are in Europe and the United States and are called: * the Precision-ALS programme * the ALS/Motor Neuron Disease (MND) Natural History Consortium (NHC) The main goal of this study is to collect safety information in participants with SOD-1 ALS who were in either of the groups. The main question researchers want to answer in this study is: * What are the characteristics of the participants in this study? * How many participants had serious adverse events (SAEs), including ones that affect the brain, spinal cord, or nerves? An adverse event is a health problem that may or may not be caused by a drug during the study. An adverse event is considered serious when it results in death, is life-threatening, causes lasting problems, or requires hospital care. Researchers will also learn more about: * How many participants develop other health conditions or become pregnant, including how the pregnancy turned out * Why and when participants stopped treatment This study will be done as follows: * Participants will be screened to check if they can join the study. * Data from the participants' regular visits to their clinic will be collected based on which study research center they are in. * Each participant will be in the study until they decide to leave or until death. Currently, the study is planned to last at least 7 years.