View clinical trials related to Spinal Cord Injuries.
Filter by:The aims of this proposal are to: 1) investigate whether individuals with spinal cord injury (SCI) demonstrate cardiac autonomic, cerebrovascular, and cognitive dysfunctions compared to non-injured age- and sex-matched controls in the following conditions: supine rest and head-up tilt/face-cooling test; 2) examine if autonomic completeness/ incompleteness, physical activity, and psychological distress are predictors for dysfunctions during supine rest and head-up tilt/face cooling conditions in SCI individuals; 3) examine if one bout of moderate-intensity aerobic exercise temporarily improves cardiac autonomic and cerebrovascular functions and thereby improves cognition when in supine rest and head- up tilt/face cooling conditions. The study will include an initial visit and an experimental visit to our lab. Three groups of participants will be included in this study: Group 1, SCI with acute exercise; group 2, SCI with rest-control; and group 3, age- and sex-matched non-injured individuals. Cardiovascular variables, such as heart rate variability, blood pressure variability, and cerebrovascular variables, such as cerebral blood flow velocity and oxygenated hemoglobin, and cognitive performance will be examined. The investigator hypothesizes that individuals with SCI will have impaired cardiac autonomic, cerebrovascular, and cognitive functions compared to the non-injured controls, and an acute exercise can improve those functions. Autonomic completeness/incompleteness, physical activity, and psychological distress are significant factors that predict cardiac autonomic, cerebrovascular, and cognitive functions in individuals with SCI.
This trial will study the safety and efficacy of intrathecal injection of cultured autologous adult adipose derived mesenchymal stem cells for the treatment of spinal cord injury
This study looks to characterize gradients of dysfunction in the autonomic nervous system after spinal cord injury. The autonomic nervous system plays key roles in regulation of blood pressure, skin blood flow, and bladder health- all issues that individuals with spinal cord injury typically suffer. Focusing on blood pressure regulation, the most precise metric with broad clinical applicability, the investigators will perform laboratory-based tests to probe the body's ability to generate autonomic responses. For both individuals with spinal cord injury and uninjured controls, laboratory-based experiments will utilize multiple parallel recordings to identify how the autonomic nervous system is able to inhibit and activate signals. The investigators anticipate that those with autonomic dysfunction after spinal cord injury will exhibit abnormalities in these precise metrics. The investigators will further have research participants wear a smart watch that tracks skin electrical conductance, heart rate, and skin temperature, which can all provide clues as to the degree of autonomic dysfunction someone may suffer at home. The investigators will look to see if any substantial connections exist between different degrees of preserved autonomic function and secondary autonomic complications from spinal cord injury. In accomplishing this, the investigators hope to give scientists important insights to how the autonomic nervous system works after spinal cord injury and give physicians better tools to manage these secondary autonomic complications.
This study will examine whether supplementation with the serotonin and dopamine precursors, 5HTP and L-DOPA can alter central nervous system excitability and improve motor function after incomplete and complete spinal cord injuries.
To demonstrate the superior effect of ES135 combined with spinal cord repairing surgery, compared to a placebo control with spinal cord repairing surgery, on post-surgery motor function recovery as measured by the changes from baseline of ISNCSCI Motor Scores in subjects
This study is based on preclinical (animal) studies showing that infusing bone marrow-derived mesenchymal stem cells into the spinal fluid may contribute to improving neurologic function in animal models with spinal cord injuries. Bone marrow (BM) contains several types of stem cells that can produce functional cells. This includes cells that could help the healing process of damaged neurologic tissue. The primary objective of this study is to see if the injection of these cells, obtained from your own bone marrow, is safe. A secondary objective is to evaluate if the treatment can provide functional improvements (neuromuscular control and sensation) in the affected areas.
Autologous Incubated Macrophages (ProCord) is being developed as a therapy for acute, complete spinal cord injury (SCI). The therapy is intended to reverse the loss of motor and sensory function. Following non-CNS tissue injury, macrophages quickly arrive on the scene, where they clean up cell debris, secrete different molecules thus promoting a controlled inflammatory reaction that forms the first phase of the wound healing process. While this process occurs in most tissues, including peripheral nerves, it does not occur in the CNS, where macrophages and other immune cells are relatively rare, and their activities curtailed by a biochemical mechanism known as "immune privilege." In animal studies, it appears that incubated macrophages circumvent the immune privilege, thus supporting the regrowth of axons through the injury site and enabling the recovery of neurological function. The concept derives from the pioneering research of Prof. Michal Schwartz at the Weizmann Institute of Science.