View clinical trials related to Spinal Cord Injuries.
Filter by:To establish a spine injury and spinal cord injury (SCI) treatment database; to complete pre- and in-hospital evaluation of spine injury and SCI, develop and optimize first aid procedures, form pre-and in-hospital standardized training program for the treatment of spine injury and SCI; to develop first aid guidelines and establish an evaluation and treatment system for early surgery, as far as possible to save the spinal cord function and reduce the degree of disability; to form expert consensus on acute SCI and "green channel" patterns, will be promoted in hospitals in Beijing and other cities of China, so as to improve the level of first aid treatment of acute spine injury and SCI in Chinese cities, and to reduce the occurrence of secondary injury and severe dysfunction due to improper treatment.
Pilot Study of Clinical Safety and Feasibility of the Neuro-Spinal ScaffoldTM for the Treatment of Complete (AIS A) Traumatic Acute Spinal Cord Injury at the C5-T1 Neurological Levels The purpose of this study is to support an expansion to support marketing applications as well as future studies.
The investigators have recently shown in incomplete SCI patients that long-term paired associative stimulation is capable of restoring voluntary control over some paralyzed muscles and enhancing motor output in the weak muscles (1). In this study, the investigators will administer long-term paired associative stimulation to patients with incomplete SCI of non-traumatic origin.
To compare the effects of early (within 24 hours) and delayed (exceed 24 hours) epidural decompression surgery on the recovery of spinal nerve function in patients with acute spinal cord injury (complete and incomplete) at postoperative 6 months.
Hypothesis of the Study: Based on the presented results, the investigator hypothesises that HBO preserves neurons that are not irreversibly damaged (i.e. severed) during initial trauma, thus enabling regain of their function. The investigator predicts that HBO treatment protects and enhances motor function in initially paralysed regions, including improvement in function of the extremities as well as recovery of urinary bladder control and bowel function. Outline of the Proposed Study: Within a prospective "proof of principle" trial, a total of 100 patients will be included. Fifty patients will be recruited at the Division of Thoracic and Hyperbaric Surgery, Medical University of Graz. In parallel, 50 control patients will be included at the Department of Orthopaedics and Trauma, Paracelsus University Salzburg, Salzburger Landeskliniken (SALK), Austria. Thereby, all patients that are admitted at the Medical University of Graz can be treated and the enrolment of 50 patients into the treatment group can be implemented within the outlined time frame. The active recruitment period is planned for three years. Both HBO treated and control patients will undergo the same surgical and nonsurgical procedures. HBO treatment will be started within 24 hours after the injury. A total of 21 consecutive daily sessions will be applied, followed by routine rehabilitation programmes. By matching control and HBO-treated patients, an evaluation of the treatment effect of HBO is possible. The outcome will be evaluated by implementing the American Spinal Injury Association (ASIA)-scores and magnet resonance (MR) imaging. Additionally, inflammatory and regenerative blood markers will be analysed (neuroendocrine markers/neuro-transmitters: S100beta, Brain Derived Neurotrophic Growth Factor [BDNF], Glial Fibrillary Acidic Protein [GFAP], Reactive Oxygen Species (ROS), norepinephrine; array of pro- and anti-inflammatory cytokines and chemokines).
The overall vision of this proposal is to demonstrate that a virtual reality based motor imagery training program will improve brain computer interface (BCI) performance and motor function in quadriplegic subjects. The ultimate goal is to increase the independence of subjects with spinal cord injury by training to safely control BCI assistive devices and to enhance motor recovery.
The overall aim of this project is to assess the effect of combining transcutaneous lumbosacral stimulation (TLS) during Exoskeleton Assisted Walking (EAW) compared to EAW alone without stimulation on walking recovery.
The aim of the study is to quantitate Central Nervous System (CNS) autoantibody development in human blood using ELISA after human brain injury, spinal cord injury, and intra-axial brain surgeries.
The purpose of this study is to see what effects sacral neuromodulation has on bladder function and quality of life in patients with acute spinal cord injury. Within 12-weeks of injury, participants will either receive an implanted nerve stimulator (like a pace-maker for the bladder) or standard care for neurogenic bladder. Patients will be assigned to one of these groups at random and followed for one year. The hypothesis is that early stimulation of the nerves will help prevent the development of neurogenic bladder.
The proposed study is intended to inform the hypotheses that (1) regular dosing of exoskeleton walking will provide health benefits to non-ambulatory and poorly-ambulatory individuals with SCI, including decreased pain and spasticity, improvements in bowel and bladder function, decreased body-mass index (BMI), enhanced well-being; (2) regular dosing of exoskeleton walking will facilitate neurological or functional recovery in some individuals with SCI, particularly those with incomplete injuries; and (3) the level of mobility enabled by a lower limb exoskeleton is commensurate with the walking speeds, distances, and surfaces required for community ambulation.