View clinical trials related to Spinal Cord Injuries.
Filter by:The primary purpose of this study is to compare the clinical outcomes of cure and recurrence of Clostridium difficile infection in spinal cord injured patients who are treated with oral Fidaxomicin vs. oral Vancomycin. The secondary aim of this study is to compare the overall costs of treatment of Clostridium difficile infection in the two study groups.
The purpose of this study is to assess the safety of autologous human Schwann cell (ahSC) transplantation in participants with chronic SCI. This trial design is phase I, open label, unblinded, non-randomized, and non-placebo controlled multiple injury cohorts.
The purpose of this study is to assess the safety and efficacy of NeuroRegen scaffold with bone marrow mononuclear cells (BMMCs) or mesenchymal stem cells (MSCs) in patients with chronic spinal cord injury.
This study will investigate how repetitive transcranial magnetic stimulation delivered as a protocol called 'continuous theta-burst stimulation (cTBS)' alters motor output and force control to a muscle in the forearm and touch perception in individuals with chronic, incomplete spinal cord injury. CTBS is a non-invasive technique that involved repetitive delivery of transcranial magnetic stimulation at a frequency of 30 Hz over the arm representation in the primary motor or sensory cortex. The purpose of this study is to determine whether cTBS is an effective intervention to increase motor output to a muscle and increase force control of that muscle and also improve the sense of touch.
Patients with incomplete spinal cord injury
This study will evaluate the efficacy of a newly developed serious game, SCI HARD, to enhance self-management skills, self-reported health behaviors, and quality of life among adolescents and young adults with spinal cord injury and disease (SCI/D). SCI HARD was designed by the project PI, Dr. Meade, in collaboration with the UM3D (University of Michigan three dimensional) Lab between 2010 and 2013 with funding from a NIDRR (National Institute on Disability and Rehabilitation Research) Field Initiated Development Grant to assist persons with SCI develop and apply the necessary skills to keep their bodies healthy while managing the many aspects of SCI care. The study makes a unique contribution to rehabilitation by emphasizing the concepts of personal responsibility and control over one's health and life as a whole. By selecting an innovative approach for program implementation, we also attempt to address the high cost of care delivery and lack of health care access to underserved populations with SCI/D living across the United States (US). H1: SCI Hard participants will show greater improvements in problem solving skills, healthy attitudes about disability, and SCI Self-efficacy than will control group members; these improvements will be sustained over time within and between groups. H2: SCI Hard participants will endorse more positive health behaviors than control group members; these improvements will be sustained over time within and between groups. H3: SCI Hard participants will have higher levels of QOL than control group members; these differences will be sustained over time within and between groups. H4: Among SCI Hard participants, dosage of game play will be related to degree of change in self-management skills, health behaviors and QOL.
This study will enroll people with SCI who have spasticity and some ability to walk. The goal is to understand if standing on a platform and receiving WBV results in decreased spasticity and improved walking ability. Published article is available (PMID: 29959653)
The overall aim is to assess whether task specific locomotor training and spinal cord electrical stimulation (SCES) can induce neural reorganization of the functionally isolated human spinal cord to improve standing and stepping in individuals with functionally complete SCI. The investigators propose that locomotor training will result in generation of more effective standing and stepping efferent patterns by restoring phase dependent modulation of reflexes and reciprocal inhibition, reducing clonus and mediating interlimb coordination. The investigators propose that the SCES will optimize the physiological state of the spinal cord interneuronal circuitry compromised by compensating for loss of supraspinal input for the retraining of these tasks.
In this study, 6 volunteer participants with chronic spinal cord injury will be invited to use an autonomous hand exoskeleton device controlled by a brain/neural-computer interaction (BNCI) system fusing electroencephalography (EEG) and electrooculography (EOG) to detect the intention of the user to grasp objects of daily life. The BNCI system consists of a lightweight hand exoskeleton connected to portable motors, rechargeable batteries and a computerized control system integrated into a wheelchair. Before, during and after use of the BNCI system the volunteers will perform standardized assessments and complete questionnaires to assess the functional and psychological effects of the exoskeleton. Functional outcomes primarily focus on motor function in performing daily life actions while psychological outcomes primarily focus on safety, reliability as well as predisposition and perceptions of disability.
After a complete spinal cord injury (SCI), the patient becomes wheelchair-dependent, and the associated lack of weight-bearing and inactivity of paralysed muscles can lead to extensive bone loss in the long bones of the legs. It has been documented that the most rapid phase of bone loss is during the first year, but bone loss can continue for a number of years post-injury, leading to an increased risk of fracture in chronic SCI. Through a previous longitudinal study, in which we described rates of bone loss in the first year of SCI using peripheral Quantitative Computed Tomography (pQCT), we showed that there is a subset of patients who suffer from extremely rapid bone loss, losing up to 50% of their bone mineral density (BMD) in the first 12 months post-SCI. As a result of this work, we now know that, by performing repeat bone scans within months of injury, we are able to detect and "red-flag" those patients at highest risk of rapidly weakening bones. We propose that, once these patients have been identified, there is an opportunity to intervene with bone-stimulating interventions within months of injury, before BMD reaches dangerously low values. In this new phase of the research, therefore, we are introducing an intervention phase to the longitudinal pQCT study. For this, we aim to trial a physical intervention, Whole Body Vibration (WBV), that could potentially reduce rates of further bone loss in fast bone losers. Vibration would achieve this by acting as a mechanical stimulus for bone cells, to encourage bone formation. If shown to be successful as an early bone-stimulating intervention, it may prove to be a tool for reducing future fracture risk in patients with SCI.