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Showing 1-17 of 17 trials
NCT05432999
People with spinal cord injury (SCI) experience a host of secondary complications that can impact their quality of life and functional independence. One of the more prevalent complications is spasticity, which occurs in response to spinal cord damage and the resulting disruption of motor pathways. Common symptoms include spasms and stiffness, and can occur more than once per hour in many people with SCI. Spasticity can have a negative impact over many quality of life domains, including loss of functional independence, activity limitations, and even employment. Its impact on health domains is also pronounced, with many people who have spasticity reporting mood disorders, depression, pain, sleep disturbances, and contractures. Spasticity can interfere with post-injury rehabilitation and lead to hospitalization. There are many treatments for spasticity in this population. However, many do not have long-term efficacy, and, if they do, they are often pharmacological in nature and carry side effects that could limit function or affect health. The goal of this pilot, randomized-controlled study is to investigate the potential efficacy and safety of a non-invasive treatment with a low side effect profile, extracorporeal shockwave therapy (ESWT). ESWT has shown some benefits in people with post-stroke spasticity with no long term side effects. Thirty individuals with chronic, traumatic SCI will be recruited. Fifteen will be provided with ESWT while the other fifteen will be given a sham treatment. Clinical and self-report measures of spasticity and its impact on quality of life will be collected, as well as quantitative ultrasound measures of muscle architecture and stiffness. The ultimate goal of this pilot project is to collect the data necessary to apply for a larger randomized-controlled trial. Conducting a larger trial will allow for a more powerful estimation of safety and efficacy of ESWT as a treatment for spasticity in people with SCI.
NCT01958086
The investigators objective is to run human clinical trials in which brain activity recorded through a "brain-chip" implanted in the human brain can be used to provide novel communication capabilities to severely paralyzed individuals by allowing direct brain-control of a computer interface. A prospective, longitudinal, single-arm early feasibility study will be used to examine the safety and effectiveness of using a neural communication system to control a simple computer interface and a tablet computer. Initial brain control training will occur in simplified computer environments, however, the ultimate objective of the clinical trial is to allow the human patient autonomous control over the Google Android tablet operating system. Tablet computers offer a balance of ease of use and functionality that should facilitate fusion with the BMI. The tablet interface could potentially allow the patient population to make a phone call, manage personal finances, watch movies, paint pictures, play videogames, program applications, and interact with a variety of "smart" devices such as televisions, kitchen appliances, and perhaps in time, devices such as robotic limbs and smart cars. Brain control of tablet computers has the potential to greatly improve the quality of life of severely paralyzed individuals. Five subjects will be enrolled, each implanted with the NCS for a period of at least 53 weeks and up to 313 weeks. The study is expected to take at least one year and up to six years in total.
NCT07438353
Individuals with chronic cervical spinal cord injury (SCI) and tetraplegia commonly experience persistent impairment in upper limb function, leading to reduced independence and quality of life. Transcutaneous spinal cord stimulation (tSCS) is a non-invasive neuromodulation technique that has demonstrated potential to improve upper limb strength and function when combined with rehabilitation. However, access to tSCS is limited in Singapore due to cost, regulatory barriers, and the need for frequent outpatient therapy. This study evaluates the safety, efficacy, and feasibility of a home-based digital rehabilitation program incorporating tSCS delivered using a commercially available neuromuscular electrical stimulation (NMES) device. Using a prospective, open-label single-case experimental design with multiple baselines across participants, individuals with chronic, non-progressive cervical SCI will receive daily home-based tSCS combined with an mobile application-guided upper limb exercise program. Upper limb function, quality of life, feasibility, and safety outcomes will be assessed longitudinally over a 22-week study period.
NCT03482310
This study is for people who have a paralyzed arm and hand from a spinal cord injury, who have also received a recording electrode array in the brain as part of the BrainGate study. The study will look at the ability of these participants to control different grasping patterns of the hand, both in virtual reality and in his/her actual hand. Movement of the participant's hand is controlled by a functional electrical stimulation (FES) system, which involves small electrodes implanted in the arm, shoulder and hand that use small electrical currents to activate the appropriate muscles.
NCT03161067
The Bidirectional Cortical Neuroprosthetic System (BiCNS) consists of NeuroPort Microelectrode Array Systems and NeuroPort Electrodes (Sputtered Iridium Oxide Film), Patient Pedestals, the NeuroPort BioPotential Signal Processing System, and the CereStim C96 Programmable Stimulator. The goals of this early feasibility study consist of safety and efficacy evaluations of this device.
NCT07127172
The GB-PRIME Study is an early feasibility study designed to assess the clinical safety and functionality of the Neuralink N1 Implant and R1 Robot. This study involves participants who have tetraparesis, tetraplegia, or a diagnosis that may lead to these conditions. The N1 Implant is a wireless, rechargeable device mounted on the skull, connected to electrode threads that are inserted into the brain by the R1 Robot, which is a robotic device specifically designed for this procedure.
NCT06798233
The goal of this clinical trial is twofold: 1. to develop a questionnaire for care givers to assess hip pain in quadriplegic pediatric patients who are not able to communicate it independently 2. to validate this questionnaire in a cohort of 100 pediatric patients with quadriplegia Researchers will : 1. involve 10 experts (8 multiprofessional clinicians and 2 parents) in a Delphi approach to develop the questionnaire 2. assess construct validity and reliability of the questionnaire submitting it to 100 care givers of pediatric patients with quadriplegia, and comparing results with the Revised Face Legs Activity Cry and Consolability (r-FLACC) Scale assessed by the physiatrist during the visit Participants will: 1. as experts, firstly answer open questions on this topic, secondly evaluate each item of the new questionnaire by means of a 5-point Liekert scale 2. as caregivers of pediatric patients with quadriplegia, fill out the questionnaire within 2 weeks after the visit
NCT06992596
The UAE-PRIME Study is a feasibility study designed to assess the initial clinical safety and functionality of the Neuralink N1 Implant and R1 Robot. This study involves participants who have tetraparesis, tetraplegia, or a diagnosis that may lead to these conditions. The N1 Implant is a wireless, rechargeable device mounted on the skull, connected to electrode threads that are inserted into the brain by the R1 Robot, which is a robotic device specifically designed for this procedure.
NCT01964261
This research study is being conducted to develop a brain controlled medical device, called a brain-machine interface. The device will provide people with a spinal cord injury some ability to control an external device such as a computer cursor or robotic limb by using their thoughts along with sensory feedback. Development of a brain-machine interface is very difficult and currently only limited technology exists in this area of neuroscience. Other studies have shown that people with high spinal cord injury still have intact brain areas capable of planning movements and grasps, but are not able to execute the movement plans. The device in this study involves implanting very fine recording electrodes into areas of the brain that are known to create arm movement plans and provide hand grasping information and sense feeling in the hand and fingers. These movement and grasp plans would then normally be sent to other regions of the brain to execute the actual movements. By tying into those pathways and sending the movement plan signals to a computer instead, the investigators can translate the movement plans into actual movements by a computer cursor or robotic limb. A key part of this study is to electrically stimulate the brain by introducing a small amount of electrical current into the electrodes in the sensory area of the brain. This will result in the sensation of touch in the hand and/or fingers. This stimulation to the brain will occur when the robotic limb touches the object, thereby allowing the brain to "feel" what the robotic arm is touching. The device being used in this study is called the Neuroport Array and is surgically implanted in the brain. This device and the implantation procedure are experimental which means that it has not been approved by the Food and Drug Administration (FDA). One Neuroport Array consists of a small grid of electrodes that will be implanted in brain tissue and a small cable that runs from the electrode grid to a small hourglass-shaped pedestal. This pedestal is designed to be attached to the skull and protrude through the scalp to allow for connection with the computer equipment. The top portion of the pedestal has a protective cover that will be in place when the pedestal is not in use. The top of this pedestal and its protective cover will be visible on the outside of the head. Three Neuroport Arrays and pedestals will be implanted in this study so three of these protective covers will be visible outside of the head. It will be possible to cover these exposed portions of the device with a hat or scarf. The investigators hope to learn how safe and effective the Neuroport array plus stimulation is in controlling computer generated images and real world objects, such as a robotic arm, using imagined movements of the arms and hands.
NCT03277521
A repetitive, non-invasive brain stimulation technique referred to as theta burst stimulation can modulate corticomotor excitability and therefore has great rehabilitative potential for individuals with neurologic deficits, including individuals with spinal cord injury (SCI). In particular, intermittent theta burst stimulation (iTBS) can increase corticomotor excitability and may be a useful adjunct to physical rehabilitation to promote motor re-education after upper limb reconstruction in individuals with tetraplegia. Upper limb reconstruction involves surgical transfer of a non-paralyzed tendon or nerve with a redundant or less important function to perform a more critical function. Upper limb reconstruction is intended to help individuals achieve their goals related to activities of daily living and independence in the community. Outcomes after reconstruction are variable and depend largely on the efficacy of motor re-education of the transferred muscle to perform a new function. The long-term goal of our research is to determine whether iTBS combined with physical rehabilitation can improve motor re-education after reconstruction. As a first step, the purpose of this proposal is to determine the effect of iTBS on corticomotor excitability of proximal muscles in nonimpaired individuals and two groups of individuals with tetraplegia: individuals with and without upper limb reconstruction.
NCT00010374
OBJECTIVES: The objectives of this study are to test the Diaphragm Pacing Stimulation (DPS) System for treating chronic ventilatory insufficiency in persons with respiratory muscle paralysis. The hypothesis being tested in the clinical trial is that laparoscopic stimulation of the diaphragm at the motor point with intramuscular electrodes is safe and effective in providing significant ventilatory support to individuals who are otherwise dependant on a mechanical ventilator. Patients in our initial study group have all suffered from high-level spinal cord injury and were full-time dependant on positive pressure mechanical ventilation prior to inclusion.
NCT02354625
The purpose of this study is to assess the safety of autologous human Schwann cell (ahSC) transplantation in participants with chronic SCI. This trial design is phase I, open label, unblinded, non-randomized, and non-placebo controlled multiple injury cohorts.
NCT01570816
The purpose of this research study is to evaluate the effectiveness of functional electrical stimulation (FES) provided by an implanted pulse generator (IPG) in correcting hip, knee and ankle function to improve walking in people with partial paralysis.
NCT00270855
The purpose of this proposal was to evaluate and compare the health benefits of using upper extremity exercise versus functional electrical stimulation for lower extremity exercise. It was our hypothesis that both Functional Electrical Stimulation Leg Cycle Ergometry (FES LCE) exercise and voluntary Arm Crank Ergometry (ACE) upper extremity exercise would increase whole body energy expenditure, thereby increasing muscle mass, insulin sensitivity, glucose effectiveness and improving lipid profiles in adults with paraplegia.
NCT00656149
1. To evaluate improvements in hand function in stable, cervical spinal cord injured (SCI) subjects treated with functional electrical stimulation (FES)-assisted exercise; 2. To compare the information obtained from existing qualitative and quantitative hand function tests with newly developed tests of sensorimotor performance. Hypotheses: 1. the performance of tasks representative of activities of daily living (ADL) will improve with daily tele-supervised exercise of the affected hand. 2. The improvements will be greater in one exercise protocol than the other, the protocols being a) FES-assisted exercise on a workstation, b) cyclical FES, weight training and precision tasks. 3. Scores derived from quantitative data obtained from sensors on the workstation will correlate with the qualitative scores of the primary outcome measure, the ARAT hand function test.
NCT01911559
Children with Cerebral Palsy and quadriplegia or severe diplegia suffer from highly reduced mobility and consequent constipation. Clinicians frequently recommend standing-frames to exercise the support reaction in this population, sharing the opinion that the upright position may facilitate intestinal transit, although no evidence supports this assumption. The investigators conducted this single-subject research to determine the effects of the standing-frame on the frequency of evacuation in chronically constipated children with CP and quadriplegia. Moreover, the investigators studied its effects on the frequency of induction of evacuation, the characteristics of the stool and the pain suffered by the child due to constipation and/or evacuation.
NCT00059553
Incomplete spinal cord injury often results in difficulty walking. Training on a treadmill with body weight support may improve walking ability after spinal cord injury. The purpose of this study is to examine the effect of treadmill speed on spinal cord function and walking performance.