View clinical trials related to Spinal Cord Injuries.
Filter by:- People with cervical spinal cord injury (SCI) and amyotrophic lateral sclerosis (ALS) have reduced connections in the nerve circuits between the brain and the hands. Activating spared nerve circuits is one potential way to improve recovery. - The investigators are testing different combinations of physical wrist and hand movements paired with magnetic brain stimulation and electrical spinal cord or nerve stimulation to see the effects on nerve transmission to hand muscles. - This is a preliminary study. This study is testing for temporary changes in nerve transmission to hand muscles. There is no expectation of long-term benefit from this study. If temporary changes are seen in this study, then future studies would focus on how to prolong that effect.
This study will examine if acute intermittent hypoxia (brief episodes of breathing lower oxygen), which has been shown to enhance plasticity and motor output, can enhance functional outcomes and muscle activation in individuals with spinal cord injury. Our aim is to assess breathing, sitting, standing and walking functional ability before and after acute intermittent hypoxia, compared to a sham treatment. This information may be useful in advancing rehabilitation for people with spinal cord injuries.
The investigation is a multi-year observational study following the completion of the open-label, single dose Phase I/II study involving transplantation of allogeneic HuCNS-SC cells into 12 subjects with thoracic spinal cord injury. Subjects will be monitored at routine intervals for safety and preliminary efficacy for 5 years post-transplantation of the Phase I/II investigation CL-N02-SC.
This study will apply novel magnetic resonance imaging (MRI) techniques to investigation of spinal cord injury (SCI) to learn how nerve fibers repair and neural cells regain ability to control muscle during the rehabilitation. The information gained will be helpful for physicians to make more accurate diagnosis of SCI, predict injury recovery and movement restoration, and develop more effective treatment plans.
Coping-oriented hypnotic suggestions aimed at reducing pain catastrophizing was shown to reduce pain in people with chronic tension-type headache and experimental pain in healthy volunteers during hypnosis (Kjøgx et al., 2016). However, the duration of the effect on pain post-hypnosis is unknown. The aim is to investigate the durational effect of a single session of coping-oriented hypnotic suggestions on chronic pain in patients with spinal cord injury. If effective for a longer period post-hypnosis, this form of hypnosis may provide an alternative to medicine or may be used in conjunction with lower medicine dosages. Methods: 75 patients with spinal cord injury and pain is randomized into one of three conditions; coping-oriented hypnosis plus current treatment, neutral hypnosis plus current treatment or current treatment only. Pain intensity, coping strategies, pain catastrophizing, anxiety and depression is assessed before intervention and over a period of 14 days post-intervention.
The purpose of this study is to develop an algorithmic-based evaluation and treatment approach for wearable robotic exoskeleton (WRE) gait training for patients with neurological conditions.
Spinal cord injuries are anatomically mostly incomplete, showing tissue bridges of the spinal cord at the injury site. Of the 60% functionally incomplete patients, about half face a life in the wheelchair. Besides conventional rehabilitation, no prominsing further treatment options exist. One of the most plastic systems involved in locomotion is the pontomedullary reticulospinal tract, which is the oldest locomotor command system existing in most vertebrates, including primates. Muscle activation patterns for limb movements are programmed in the spinal cord and have to be activated and coordinated through commands from the so called mesencephalic locomotor region (MLR). The MLR consists of nerve cells in the lower mesencephalic tegmentum sending uni- and bilateral signals through the medullary reticulospinal tracts. Classical physiological studies showed that electrical stimulation of the MLR induce locomotion. For the first time this approach was transferred and recently published in a model of induced incomplete spinal cord injury by the Schwab group. Rats severly impaired in motor hindlimb control with only 10-20% spared white matter, recovered with fully functional weight bearing locomotion under MLR deep brain stimulation (DBS). Even rats with only 2-10% spared white matter regained weight supporting stepping. DBS is a clinical standard treatment option in patients with movement disorders but does not relieve all symptoms. Therefore, small studies of MLR stimulations have been safely used in Parkinsonian patients showing freezing of gait and frequent falls with variable results. In a translational approach, we aim at performing a multidisciplinary phase one clinical trial with 5 patients and incomplete spinal cord injury. With the means of our established universitary setup for DBS treatments the operations will be performed unilaterally under local anaesthesia in the Division of Neurosurgery, USZ, with perioperative electrophysiological recordings, clinical assessments and gait analysis under test stimulation in the Spinal Cord Injury Center Balgrist.
Transcranial direct current stimulation (tDCS) over the primary motor cortex (M1) will be applied for patient who suffer from neuropathic pain following spinal cord injury The tDCS treatment will be coupled with a video of a man walking (creating a visual illusion) in order to enhance functional ability and reduce pain
Observational comparison on Incidence of Pressure Injury between the Freedom Bed Automated Continuous lateral Rotation Therapy System and Manual Caregiver Re-positioning every 2 hours on a standard Hospital Bed.
FES is a common and established method in the rehabilitation of persons with spinal cord injury (SCI). Some known effects of FES were investigated in several studies e.g. avoiding disuse and denervation atrophy, improving muscle force, power output and endurance changing muscle fibre type, increasing cross sectional area of muscle, increasing muscle mass, activation of nerve sprouting, reducing spasticity and motor learning. Most of the studies investigated the impact of FES in the lower limbs. For the upper extremities fewer studies exist. However, it is supposed that the effects of FES are similar. In the rehabilitation of persons with tetraplegia, FES, especially the stimulation of the upper extremities triggered by electromyography (EMG) is an established method to generally improve hand and arm function. However, none of those studies has investigated the effect of FES in combination with reconstructive tetraplegia hand surgery. Improved muscle strength is supposed to improve the functional outcome in participation. Additionally, FES could increase the motor learning process. Supported by the clinical observation we hypothesize that FES has a positive influence on the outcome of surgical reconstruction of tendon and/or nerve transfers.