View clinical trials related to Quadriplegia.
Filter by:Restoring upper extremity function in patients with cervical spinal cord injury is extremely important for patients' independence and quality of life. At present, there are limited options for hand or arm reanimation in this patient population. Nerve transfer is one such option that can partially restore the natural movement of hand or arm function in select patients. The investigators are interested in understanding whether recovery of hand or arm motor function after nerve transfer can be augmented by cervical epidural spinal cord stimulation.
The PRIME Study is a first-in-human early feasibility study to evaluate the initial clinical safety and device functionality of the Neuralink N1 Implant and R1 Robot device designs in participants with tetraparesis or tetraplegia. The N1 Implant is a skull-mounted, wireless, rechargeable implant connected to electrode threads that are implanted in the brain by the R1 Robot, a robotic electrode thread inserter.
The goal of this observational study is to determine if nerve transfer surgeries improve upper extremity function and quality of life in patients with a high level cervical spinal cord injury. Participants will: - undergo standard of care pre- and post-op testing and study exams - complete pre- and post-questionnaires - undergo standard of care nerve transfer surgeries - follow-up with surgeon at 6/12/18/24/36 and potentially at 48 months - attend therapy at local therapist for up to 2 years postop.
No accepted clinical therapies exist for repair of motor pathways following spinal cord injury (SCI) in humans, leaving permanent disability and devastating personal and socioeconomic cost. A robust neural repair strategy has been demonstrated in preclinical studies, that is ready for translation to recovery of hand and arm function in human SCI, comprising daily transcranial magnetic stimulation treatment at the inpatient rehabilitation facility. This study will establish clinical effect size of the intervention, as well as safety and feasibility necessary for a subsequent controlled efficacy trial and inform preclinical studies for dosing optimization.
Neuralis is an innovative assistive technology designed for individuals with severe neuromuscular conditions, enabling wheelchair control through EEG signals. This study aims to assess the safety, feasibility, and efficacy of Neuralis in restoring mobility and independence. The device is a discreet EEG headset which specializes in decoding signals from visual cortex, allowing users to initiate precise wheelchair movements through focused attention. This research seeks to demonstrate Neuralis' potential in revolutionizing assistive technology by offering a non-invasive, user-friendly solution for individuals facing motor impairments, ultimately enhancing their quality of life.
This study aims to test if the VR games could be a form of upper limb rehabilitation for people with arm/hand problems due to SCI while they are in hospital. Participants who have had a spinal cord injury and have tetraplegia will be recruited from the Queen Elizabeth National Spinal Injuries Unit. After they have provided informed consent, they will receive 12 weeks of either standard upper limb therapy ('control group'), or both the VR activities and standard treatment ('VR Group'). Participants who receive VR activities will engage in immersive VR games that have been designed in co-production with people with tetraplegia and spinal cord injury specialists. The games aim to help participants improve the use of their arms and hands while they are undergoing primary rehabilitation within the Queen Elizabeth National Spinal Injuries Unit (QENSIU). The participants who are in the control group will receive their usual rehabilitation and will be given the opportunity to try the VR games after the completion of their involvement in the trial. This study will measure the feasibility (the 'primary outcome') and explore the effectiveness (the 'secondary outcome') of the VR intervention. Feasibility will be measured by recording how often the VR games are used and whether or not participants use the games for the full duration of the trial. Participants and therapists will be interviewed at the end of the trial.
The proposed study will focus on the feasibility of and effectiveness to a home-based program for persons with chronic SCI focused on upper limb training augmented with a transcutaneous neurostimulator supported via a video telehealth platform.
The goal of this study is to improve our understanding of speech production, and to translate this into medical devices called intracortical brain-computer interfaces (iBCIs) that will enable people who have lost the ability to speak fluently to communicate via a computer just by trying to speak.
The goal of this pilot clinical study is to investigate the NeuroLife EMG-FES Sleeve System, a closed-loop approach to functional electrical stimulation, in adults (n=12) with chronic (>12 months) tetraplegia due to spinal cord injury. Briefly, the NeuroLife EMG-FES System is a completely non-invasive system (surface electrodes only, no implantable components) worn on the forearm which has up to 160 electrodes that can record electromyography (EMG), or muscle activity, and also electrically stimulate (FES) muscles. The main questions this study aims to answer are: 1) What is the safety, feasibility, and early efficacy of the NeuroLife EMG-FES system on upper extremity outcomes in chronic SCI survivors with tetraplegia, and 2) Can EMG be used as a biomarker of recovery over time in chronic SCI participants undergoing rehabilitation? Participants will complete an intensive, task-oriented rehabilitation protocol using the NeuroLife EMG-FES System (3x/week x 12 weeks) in an outpatient setting. We will assess functional outcomes using standardized clinical measures of hand and arm function at six timepoints.
Through brain-computer interface alternative technology, patients can control the external equipment（wheelchairs, robotic arms, the WeChat app and other physical aids）with brain signals to improve the patients quality of life.