View clinical trials related to Spinal Cord Injuries.
Filter by:This study will be an extension of the Spinal Cord Injury Vocational Integration Program (SCI-VIP). The study involves research about how to help Veterans with spinal cord injury (SCI) gain employment. Vocational rehabilitation is a special field of service aimed at putting persons with disabilities in the best possible position to become employed. The Veterans Administration has a long history of providing vocational rehabilitation for Veterans with mental health issues and has recently started providing similar services to persons with physical disabilities, including SCI. Past research has shown that vocational rehabilitation is effective in helping some Veterans with spinal cord injury (SCI) gain employment. The extension of this work through PrOMOTE study will establish a large national database of over 2000 Veterans with SCI, containing extensive employment, medical, functional and psychosocial data. The study will analyze both quantitative and qualitative measures to maximize its findings.
The purpose of this study is to determine whether KAI-1678 is effective in the treatment of pain associated with spinal cord injury.
Study is designed to evaluate the efficacy of oral fosamax in prevention on osteoporosis in acute spinal cord injury. Efficacy will be measured by a duel energy X-Ray absorptiometry (DEXA) scan every 6 months. Patients will complete 3 visits, screening, 6 months, 12 months and be required to take oral fosamax versus placebo weekly.
This study was intended to evaluate a new assistive neuro-technology, known as the Tongue Drive System (TDS), by its potential end-users, i.e. individuals with severe disabilities, who are the best experts for indicating the benefits and possible shortcomings of any new ANT. Our goal is to assess the acceptability and usability of the TDS for various tasks that are important in daily lives of these individuals, such as computer access, wheeled mobility, and environmental control.
The purpose of this study is to record signatures from the fluid surrounding the spinal cord from people who have an implanted drug infusion system.
The purpose of this study is to determine whether the novel treatment of transcranial direct current stimulation (tDCS) could decrease the pain perception of those with spinal cord injury. We will also determine whether these changes are correlated with the clinical outcome (pain reduction).
Reconditioning program during the chronic phase of the spinal cord-injury is well known for its beneficial effects, but there is no investigation in early rehabilitation consequences. Nevertheless, it may be justified : to increase oxygen uptake; to decrease the risks of medical complications; or to improve the mobility. The restrictive autonomy is due to different factors: firstly wheelchair users reduce their movement because they need technical or human help to achieve transfers; and secondly, locomotion is performed by the upper limbs. Without specific practice, the upper limbs mechanical and physiological properties do not permit exercises that are long and intense. Then, the purpose of this research is to evaluate the effects of an 8 weeks interval training program on wheelchair independance during inpatient early rehabilitation for spinal cord injury (3 to 6 months post injury) compared to a control group (classical rehabilitation program in a physical medicine and rehabilitation department).
Background: Body weight supported (BWS) locomotor training improves overground walking ability in individuals with motor-incomplete spinal cord injury (SCI). While there are various approaches available for locomotor training, there is no consensus regarding which of these is optimal. The purpose of this ongoing investigation is to compare outcomes associated with these different training approaches. Subjects and Methods: Subjects with chronic motor-incomplete SCI have completed training and initial and final testing. Subjects were randomly assigned to 1 of 4 different BWS assisted-stepping groups, including: 1) treadmill training with manual assistance (TM), 2) treadmill training with stimulation (TS), 3) overground training with stimulation (OG), or 4) treadmill training with robotic assistance (LR). Prior to and following participation the investigators assessed: - Walking-related outcome measures: overground walking speed, training speed, step length and step symmetry. - Spinal cord reflex activity - Electromyographic (EMG) associated with walking Hypotheses: In individuals with incomplete spinal cord injury (SCI): 1. A 12-week period of body weight supported treadmill training with TS will produce improvements in walking function that are significantly greater than those produced by training with TM, OG, LR. 2. TS training will be associated with greater changes to spinal reflex activity than will be observed in subjects trained with manual assistance or non-assisted stepping. Changes to spinal reflex activation will be such that this activity more closely resembles that observed in non-disabled (ND) individuals. 3. Following participation in this walking regimen, EMG activity observed during walking in all groups will be more robust, more consistent and better coordinated than EMG measures obtained prior to training.
The loss of muscle contraction (paralysis) removes an important stimulus for maintenance of overall health for individuals with complete spinal cord injury (SCI). Increased protein catabolism (atrophy) limits important stresses to the skeletal system. Bone loss doubles the risk of fracture and contributes to increased mortality in Veterans with SCI. Metabolic syndrome and diabetes lead to heart disease in Veterans with SCI at higher rates than the general population. Exercise methods to sustain muscle tissue, bone density, and metabolic stability after SCI are lacking scientific justification. If left unchecked, the secondary complications of SCI can be health limiting or even life threatening to Veterans with paralysis. The importance of maintaining the health of the musculoskeletal system after SCI has never been greater as a cure for paralysis may become a reality. Contemporary rehabilitation interventions lack the ability to functionally load muscle tissue, quantify the dose of load, stress the cardiovascular system, monitor the overall stresses during daily exercise training, or offer portability to improve compliance with the exercise. The long-term goal of this project is to establish the optimal dose of muscle and bone stress during functional exercise in order to improve the health of Veterans with complete paralysis. The practical outcome of this research is to offer a form of activity that is feasible, portable, and grounded in sound scientific principles. The scientific goal is to understand whether the dose of force generated in paralyzed muscle via evoked contractions is critical to muscle atrophy/hypertrophy molecular pathways, physiologic performance, and insulin sensitivity. The investigators will administer various doses of muscle force by manipulating the frequency of electrical stimulation while keeping stimulation current (i.e. muscle fiber recruitment) constant. Interestingly, no previous study has examined the dose of muscle force necessary to trigger adaptations in protein synthesis/degradation pathways. The investigators wish to discover the most effective method to maintain the molecular and physiologic properties of paralyzed muscle. The investigators believe such a method will be in urgent demand as a co-intervention with pharmaceutical strategies in post-SCI rehabilitation.
The purpose of this pilot study is to investigate whether gait specific robotic supported bodyweight supported treadmill training and lower extremity strength training have similar beneficial effects on walking function and other outcomes.