View clinical trials related to Spinal Cord Injuries.
Filter by:There is accumulating evidence that neuromodulation by repetitive transcranial magnetic stimulation (rTMS) of the motor cortex holds promise as a treatment for rehabilitation of motor function following a spinal cord injury. This study is designed to assess the clinical potential of non-invasive stimulation of the primary motor cortex to improve motor functions.The results will help to evaluate the clinical relevance of motor cortex stimulation for motor functions in patients with spinal cord injury. The outcomes of this study could potentially support the initiation of a larger clinical trial and the development of a new routine treatment.
The goal of this feasibility trial is to learn if exoskeleton or robotic walking works to reduce nerve (neuropathic) pain after spinal cord injury. This study asks is: - Providing walking practice through use of a robotic device (exoskeleton) three times per week for twelve weeks possible to deliver? - Would people sign up and stick to the programme? - And will it help to reduce neuropathic pain levels after spinal injury? Researchers will compare robotic walking and a relaxation program to see if robotic walking works to reduce neuropathic pain levels after spinal injury. Participants will: - Complete a number of questionnaires and tests related to their pain before the trial. - Complete robotic walking or a relaxation program three times per week for twelve weeks. - Complete the same questionnaires and tests after the trial finishes and 6 months after. - Complete an interview telling researchers about their experiences of the trial.
The study aims to examine the plausible interventional mechanisms underlying the effects of epidural spinal cord stimulation.
This study seeks to conduct a pilot study to test whether a cognitive training program can improve processing speed abilities in individuals with acute traumatic spinal cord injury.
The purpose of this study is to assess the effect of various hemodynamic management strategies on functional neurologic outcomes and non-neurologic adverse events in the first 5 days following acute spinal cord injury (SCI). The hemodynamic management strategies assessed include targeting a mean arterial blood pressure (MAP) goal of 85-90 mmHg, targeting a spinal cord perfusion pressure (SCPP) goal of ≥65 mmHg, or targeting normal hemodynamics, which is a MAP goal of ≥65 mmHg.
The aim of this study is to assess the feasibility and safety of a novel system for percutaneous measurement of bladder pressure. This system enables minimally invasive procedures and high-quality recordings, offering a sampling rate and synchronization surpassing traditional methods. The pressure sensor system has the potential to be developed into a low-cost method suitable for mass production. The study will include a sample of convenience of up to 40 subjects. Pressure will be recorded simultaneously in the bladder using both the conventional and novel pressure recording systems. This simultaneous recording method will provide a direct comparison of pressure recordings between the two systems. Subjects will be examined for any subjective or objective adverse events.
Background: The scarcity of resources for spinal cord injury (SCI) rehabilitation constitutes a significant obstacle, particularly in war-torn regions experiencing a rise in such injuries. Implementing a home-based rehabilitative program (HBRP) tailored to patients' environmental, social, and financial contexts is crucial in mitigating this challenge. The authors investigated the effects of a 24-month HBRP on anthropometric measurements, muscular strength, sensory and motor function, and independence in participants transitioning from bed to walking following SCI. Methods: Serial case study in a quasi-experimental design, the conducting was at the participants' homes. The participants were four patients with SCI (experimental group) and another two patients with SCI (control group). The interventions were a 24-month HBRP comprising strength, flexibility, and balance training, the outcome measures involved anthropometric measurements, muscle strength using a digital handheld dynamometer, muscle thickness, and cross-sectional area measured using magnetic resonance imaging, measured five walking tests, and the American Spinal Injury Association scale (ASIA) score for assess the sensory and motor score, and the Spinal Cord Independence Measure (SCIM).
The development of neuropathic pain is one of the most debilitating sequels after a spinal cord injury (SCI). The overall aim of this study is to investigate potential underlying pathophysiological mechanisms of neuropathic pain after SCI. The functionality of the nociceptive pathway in humans as well as its plastic changes following SCI will be inferred with sophisticated sensory and pain phenotyping using quantitative sensory testing (i.e., psychophysical measures), objective neurophysiological measures of pain processing and the recording of pain-related autonomic responses (i.e., galvanic skin response, cardiovascular measures and pupil dilation). In addition, the interplay between the somatosensory and autonomic nervous system and its association with the development and maintenance of neuropathic pain after SCI will be investigated.
Individuals with spinal cord injury have heart attacks and strokes more frequently, and much earlier in life. People with spinal cord injuries develop plaque in vessels much faster, and the reasons why are unclear. Doctors generally attributed the increased risk with weight gain and developing diabetes, but many studies have shown that even without these common factors, plaque in vessels is developing more often and faster. Endothelial cells are a single layer of cells that line all vessels in the body and plays an important role in vessel health. Damage to endothelial cells is known to lead to heart attacks and strokes. Past studies on endothelial cells of people with spinal cord injury have been unclear. The investigators have new data that these cells are unhealthy after spinal cord injury a measurement. This includes measuring endothelial health by directly altering its function using a catheter in the arm and measuring small particles in blood called endothelial microvesicles. If the project is successful, the investigators will learn important information on the health of endothelial cells after spinal cord injury. The investigators will also be able to use these markers of endothelial cell function to create treatments to improve vessel health and prevent heart attacks and strokes later in life in people with spinal cord injury.
The purpose of this study in people living with cervical Spinal Cord Injury (SCI) is to examine the effects of paired neurostimulation (i.e., PCMS) combined with contralateral motor training on inter-limb transfer of ballistic motor and hand dexterity skills.