View clinical trials related to Multiple Sclerosis.
Filter by:Personal identity is composed of multiple facets of the self that are constructed and nourished through memories of past experiences (i.e., autobiographical memory) and the imagination of events that may occur in the future (i.e., future thinking) . While our previous work has shown that people with relapsing-remitting multiple sclerosis (pwRRMS) have autobiographical memory and future thought disorders, their impact on personal identity has not yet been explored. Based on a cognitive and clinical neuropsychology approach, this research project aims to better understand the cognitive mechanisms involved in the relationship between identity, autobiographical memory and future thinking in pwRRMS. We will examine the extent to which pwRRMS manage to maintain and reshape their identity through life experiences, with a particular interest in the potential integration of the disease as a facet of their identity. In addition, we will explore the positive and/or negative consequences of disease-related identity changes on emotional well-being and quality of life, as well as their links with the duration and severity of the disease. Overall, this research project will contribute to identify new therapeutic levers that can be used for the development of adapted and personalized care.
The goal of this clinical trial is to evaluate the impact of using the Nomad powered KAFO in people who have had a musculoskeletal or neurological injury that has affected their ability to walk. The main questions it aims to answer are to quantify the effectiveness of the Nomad in improving mobility, balance, frequency of falls, and quality of life in individuals with lower-extremity impairments compared to their own brace, over three months of daily home and community use. Participants will: - Wear a sensor that records everyday activities and mobility. - Perform measures of mobility and different activities of participation using their own brace. - Perform measures of mobility and different activities of participation using the Nomad powered KAFO
Walking safely inside or outside is an important function in patients with Multiple Sclerosis (PwMS) that affects their daily life activity and participation. Loss of functional mobility is the major component of walking disorders in PwMS. Therefore, it is important to evaluate functional mobility. Many functional mobility tests have been used for PwMS; however, these tests generally focus on walking speed and endurance. On the other hand, the L test, a variation of the timed up and go test (TUG), is a functional mobility measurement tool that extends the total walking distance to 20 meters and also requires the patients to turn both clockwise and counterclockwise. Although L the test is an easy-to-use, short-term test method that evaluates higher-level components of functional mobility such as turns and transfers, to our knowledge, no study has systematically examined the reliability and validity of the L test in PwMS yet. In addition, the cut-off times that best discriminate PwMS from healthy people and fallers with non-fallers with Multiple Sclerosis (MS) have not been reported. Therefore, this study planned to investigate the reliability, validity, and discrimination of the L test in PwMS.
This single group pre-post pilot intervention will examine the feasibility and initial effect of a 12-week behavioral intervention, based on the Behavior Change Wheel and Capability-Opportunity-Motivation-Behavior (COM-B) model and remotely delivered through electronic newsletters and online one-on-one video conferencing, for promoting physical activity and secondarily reducing fatigue and quality of life in persons newly diagnosed with MS (diagnosed with MS within the past 2 years). The investigators hypothesize the proposed 12-week intervention will be feasible based on process, resource, management, and scientific outcomes. The investigators further hypothesize that individuals who receive the 12-week intervention will demonstrate an increase in physical activity behavior, particularly daily step counts, and reduce fatigue.
Core stability, which is affected from the early period in with patients Multiple Sclerosis (PwMS), is due to deterioration in the somatosensory, motor and musculoskeletal systems. Based on the knowledge that core stability is effective on many functions, it is seen that trunk stabilization exercises are included in the physiotherapy and rehabilitation programs of patients. However, the effectiveness of augmented reality-based telerehabilitation application, which includes trunk stabilization training in PwMS, has not been adequately investigated in the literature. The aim of the study is to investigate the effectiveness of augmented reality-based telerehabilitation application, which includes trunk stabilization training, on neuromuscular and sensorimotor parameters in PwMS.
The Cawthorne Cooksey exercises and conventional program of physical therapy were administered.
To collect, preserve, and/or distribute annotated biospecimens and associated medical data to institutionally approved, investigator-directed biomedical research to discover and develop new treatments, diagnostics, and preventative methods for specific and complex conditions.
Trunk control disorders are frequently encountered in individuals with MS. Trunk control is very important for safe and quality movement. Impairment of trunk control reduces the level of independence of individuals during activities of daily living. For this reason, it is extremely important to evaluate the trunk in the examination and treatment of individuals. When the literature was examined, it was seen that studies examining trunk control were insufficient. Therefore, our study was planned to investigate the relationship between disability level and trunk control in individuals with MS.
The Kesimpta Pregnancy Registry is an observational, exposure cohort designed study to examine pregnancy and infant outcomes in women and infants who are exposed to Kesimpta (ofatumumab) during pregnancy to treat MS.
Multiple sclerosis (MS) is a chronic disease of the central nervous system characterised by multi-focal inflammatory and demyelinating lesions disseminated in the brain and in the spinal cord. Impressive advancements in the treatment of the autoimmune component of the disease have been achieved during the last decades, leading to a drastic reduction of white matter lesion accumulation and relapse rate along the disease course. However, the development of treatments effective for preventing or delaying the neurodegenerative component of the disease, that underly disability accrual and progression of the disease, remains a major challenge. The development of novel therapeutic strategies for neuroprotection that target all patients with MS is a priority objective for research in the next years. The critical steps towards identifying treatments that prevent neuro-axonal damage include a deep understanding of the mechanisms underlying neurodegeneration and the development of reliable biomarkers for assessing the efficacy of emerging drugs and for accelerating their translation to clinical use. The team of Prof. Stankoff has pioneered an innovative imaging approach combining positron emission tomography and MRI, and succeeded in generating individual maps or key biological processes such as endogenous remyelination, neuroinflammation, or early damage preceding lesion formation. Using these approaches, it has been shown that these mechanisms were influencing disability worsening over the disease course, but the investigators still lack long term longitudinal studies for the validation of these advanced imaging metrics as prognosis markers. Recently, preliminary results have also suggested that a multimodal combination of advanced MRI sequences may have the potential to reproduce some PET results. In this project the investigators propose to unravel the predictive value of individual maps of tremyelination, neuroinflammation, and early tissue damage, on long term disability worsening and to develop a novel imaging approach that aims to capture remyelination of lesions, ongoing inflammation invisible on T1 and T2 MRI sequences (subacute/chronic active lesions) and to predict short-term future disease activity (identify prelesional areas), from a single multimodal MRI acquisition in patients with MS.