Active clinical trials for "Amyotrophic Lateral Sclerosis"

MND-SMART is investigating whether selected drugs can slow down the progression of motor neurone disease (MND) and improve survival. The study is 'multi-arm' meaning more than one treatment will be tested at the same time. The trial started with 3 arms; drug 1 (memantine), drug 2 (trazodone) and placebo (dummy drug). A third drug, amantadine, was added in April 2023. The first two drugs, memantine and trazodone, were removed from the trial in September 2023 due to lack of benefit. The trial currently has 2 recruiting arms; amantadine and placebo. This allows the evaluation of each drug versus placebo. Participants will be randomly allocated to either of the recruiting arms. Medicines being tested are already approved for use in other conditions. MND-SMART has an 'adaptive' design. This means medicines being studied can change according to emerging results. Treatments shown to be ineffective can be dropped and new drugs can be added over the duration of the study. This will allow many treatments, over time, to be efficiently and definitively evaluated. The medicines being tested have been selected following a rigorous process involving a systematic, unbiased, and comprehensive review of past clinical trials data, as well as information from pre-clinical research (studies in laboratories), for MND and other related neurodegenerative disorders. Drugs have been ranked for inclusion in MND-SMART by a group of independent MND experts according to set criteria. These include consideration of how the drugs work, their safety profiles, and the quality of previous studies. New drugs will be selected for investigation in MND-SMART based on continuous review of constantly updated scientific evidence as well as findings from state-of-the-art human stem cell based drug discovery platforms. These can be added by substantial amendment to the protocol.

The primary purpose of this study is to evaluate the clinical efficacy of ION363 on clinical function and survival in carriers of fused in sarcoma mutations with amyotrophic lateral sclerosis (FUS-ALS).

Weight loss is a known negative prognostic factor in amyotrophic lateral sclerosis (ALS). One potential mechanism of weight loss in ALS is a disturbance of the mitochondrial complex I which causes an energy deficit in affected cells. Over the last years, various interventional studies targeting the energy deficit in ALS yielded promising results; however,it is still unclear which kind of nutrition or nutritional supplement is most beneficial. Ketone bodies represent a logical therapeutic option in ALS as ketone bodies are an extremely high-energetic substrate which yields the double amount of adenosine triphosphate (ATP) per mole compared to glucose. The human liver is able to synthesize ketone bodies (beta-hydroxybutyrate, acetone, and aceto-acetate) from fat in times of glucose shortage, for example after a prolonged period of fasting. This metabolic shift is the underlying principle of the ketogenic diet, a carbohydrate-free, fat-rich diet which has been successfully tested in other neurodegenerative diseases such as Alzheimer's and Parkinson's disease. In the ALS mouse model, a ketogenic diet was associated with a slower decline of motor function. However, a ketogenic diet is difficult to implement in ALS as it requires a long-term change of eating habits, which is difficult to achieve due to progressive dysphagia, fast worsening of general condition, and limited survival. Therefore, the direct administration of ketone bodies yields a more realistic alternative in ALS as it is easy to apply and allows to maintain the usual eating habits. In this study, we hypothesize that the administration of 3 x 10 g beta hydroxybutyrate ester per day (in addition to normal food intake and the standard medication of 2 x 50 mg riluzole) slows down disease progression as measured by neurofilament light chains (NfL) in serum after 6 months compared to placebo. Power calculation relies on the results of the lipids and calories for ALS (LIPCAL-ALS) study which tested the effect of a high-caloric fatty nutritional supplement in ALS. The study revealed that NfL serum values declined significantly in the intervention group while remaining stable in the placebo group over the course of the study. Assuming a similar effect size for ketone bodies, we calculated that 76 patients had to be included in the current trial.

This will be a multistate, multicenter clinical study to determine the efficacy and safety of medical cannabis for a wide variety of chronic medical conditions.

The investigator is examining the safety of transplanting cells, that have been engineered to produce a growth factor, into the motor cortex (brain) of patients with Amyotrophic Lateral Sclerosis (ALS). The cells are called neural progenitor cells, which are a type of stem cell that can become several different types of cells in the nervous system. These cells have been derived to specifically become astrocytes, which is a type of neural cell. The growth factor is called glial cell line-derived neurotrophic factor, or GDNF. GDNF is a protein that promotes the survival of many types of neural cells. Therefore, the cells are called "CNS10-NPC-GDNF." The investigational treatment has been tested in people by delivering it to the spinal cord. However, it has only been delivered to the motor cortex of animals. In this study, we want to learn if CNS10-NPC-GDNF cells are safe to transplant into the motor cortex (brain) of people.

Amyotrophic lateral sclerosis (ALS) is a serious rapidly progressive disease of the nervous system. The average survival from the time of diagnosis is two to three years. The patient physical and psychological sufferings in ALS are immense, and apart from Riluzole, there is no effective treatment. Care of advanced ALS have an estimated cost of 4-8 million NOK per year. Perhaps the most challenging topic of ALS care is the decision to extend ventilation support into the stages of disease that require treatment both during day and night. In these cases, treatment is clearly life-sustaining and although quality of life may be maintained, the burden of caregiving imposed upon family or health care workers is huge, regardless of tracheostomy (TIV) or non-invasive (NIV) modality. The present study is a longitudinal questionnaire study in Norway measuring overall quality of life, health-related quality of life, and disease-specific quality of life in ALS patients, partners and children before and after the introduction of life sustaining ventilation support. The investigators aim to increase the knowledge on how life-sustaining ventilation support with NIV or TIV affects the quality of life in ALS patients, life partners and children. The results from the study may provide crucial information for clinicians and patients on one of the most difficult ethical issues of ALS treatment. The investigators anticipate that this information will facilitate a shared decision making processes, weighing benefits and disadvantages in a wider perspective.

The study aims to evaluate the effect of mechanical insufflator-exsufflator on the respiratory functions of Amyotrophic Lateral Sclerosis (ALS) patients evaluated via peak expiratory flow on cough (PEFC) measurements. The evolution of their PEFC is monitored to see if the curative management can have a positive impact on the latter.

Amyotrophic lateral sclerosis (ALS) is a serious rapidly progressive disease of the nervous system. The mean survival from the time of diagnosis is 2.5 years. Apart from Riluzole, there is no effective treatment. Care of advanced ALS will have a cost of 4-8 million NOK per year. Research i.a. from the investigators department has shown that increased activity in histone deacetylation enzymes (sirtuins) together with increased access to NAD can delay disease progression. Nicotinamide riboside (NR) can increase cells' access to NAD and Pterostilben will stimulate sirtuins. The investigators want to study whether combination therapy with NR and Pterostilben can inhibit neurodegeneration in ALS and thereby delay disease development, increase survival and improve quality of life in ALS. In the NO-ALS extension study the investigators will follow the patients who completed the original NO-ALS study. Objectives are to evaluate adverse events and give patients possibility of compassionate use, and secondarily to see if EH301 will decrease progression of motor symptoms and loss of vital capacity, and increase survival time in patients with ALS.

The aim of this study is to investigate the effects of low-intensity combined exercises on balance, fatigue and quality of life applied to patients with ALS.

This study will provide extended access to patients and assess longer-term outcomes on patients who have completed the TUDCA-ALS study.