View clinical trials related to Paresis.
Filter by:Background: Cerebrovascular accident [CVA or commonly known as stroke] and traumatic brain injury (TBI) are common causes of morbidity, and motor impairments. Many stroke and TBI patients encounter severe functional impairments of their arm and/or hand. Recent studies have indicated that robotic training can improve upper limb function by enabling repetitive, adaptive, and intensive training. One type of robotic training is error enhancement during three-dimensional movements. The goal of this approach is to elicit better accuracy, stability, fluidity and range of motion during reaching. Previous research indicated the potential of robotic training with error enhancement as a viable clinical intervention for individuals facing motor deficits. Objectives: To evaluate the safety and efficacy of a new robotic system based on error enhancement and intended for rehabilitation of motor hand functions of post-stroke and TBI patients. Methods: A randomized, multi-center study with an open-label design. The study sample will consist of 96 participants who will be randomized into 2 separate groups. The intervention group consisting of 48 patients will receive training with the new robotic system, while the control group consisting of additional 48 patients will receive only standard practice treatments (with no exposure to the new robotic system). The outcomes of safety (adverse events and treatment tolerability), and efficacy (motor function, speed, tone, and spasticity) will be assessed and compared between the two groups. The assessment of the outcomes will be conducted at four different time points: (1) prior to the initiation of the four-week intervention, (2) after 2 weeks of intervention, (3) at the conclusion of the intervention, and (4) at a three-month follow-up session.
To establish a relationship between malnutrion and respiratory muscle dysfunction in patients with bronchectasis
The purpose of this study is to evaluate the limb functional improvement after contralateral C7 root transfer in stroke patients.
TRACTs (DeconsTructing Post StRoke HemipAresis for PreCision NeurorehabiliTation) is a single timepoint study that aims to deconstruct post-stroke deficits of the upper extremity into distinct components and relate these components to brain anatomy and physiology.
The goal of this randomised controlled trial is to learn about the effect of therapeutic climbing in hemiplegic children. The main questions it aims to answer are: Does climbing affect muscle strength and tone? What is its connection between normative data drawn from healthy children? How can it affect balance? Participants (children) will be asked to complete an series of movements used in sports climbing, such as inside-flag, back-flag and horizontal traverse, while hanging on an in-door climbing wall.
The goal of this study is to define the efficacy of fully remote home-based BCI therapy in chronic hemiparetic subcortical stroke patients. A randomized controlled study using the integrated remote BCI system will be tested against standard exercise therapy to determine the efficacy of motor improvement in chronic stroke patients with an upper extremity hemiparesis. Specifically, the integrated BCI system will include 1) the remote screening and motor assessment system for the upper extremity and 2) the BCI-controlled robotic hand exoskeleton (i.e. IpsiHand).
The goal of this clinical trial is to compare arm and hand function with and without assistance from a wearable exoskeleton in individuals with neurological injury from a single stroke. The main questions it aims to answer are: - Can a portable (i.e., body-mounted) shoulder exoskeleton increase the reachable workspace of an individual after stroke? - Can shoulder assistance from a body-mounted exoskeleton improve hand function after stroke? - Does shoulder assistance from a body-mounted exoskeleton lead to changes in functional use of the impaired limb at home? Participants will perform tasks with and without assistance from a portable exoskeleton, including: - maximal area sweeps in each of three directional planes (sagittal, frontal, transverse). - simultaneous wrist and finger extension while attempting to pick up objects of varying size from the Action Research Arm Test (ARAT), Wolf Motor Function Test (WMFT), and Box and Blocks (BBT) test kits. - standardized clinical assessments in a laboratory setting that have been shown to correlate with functional performance of activities of daily living including WMFT, ARAT, and BBT. - a Motor Activity Log (MAL) based on activity performed in the past week as a baseline, before wearing the exoskeleton at home for a period of 1-2 hours per day for at least 5 days. - a System Usability Scale and a second MAL corresponding with the activities performed while wearing the exoskeleton during the at-home phase. Researchers will compare functional ability measures with and without wearing the portable shoulder exoskeleton to see if the assistance improves functional performance in the arm and/or hand.
Many people with partial damages in their spinal cord (iSCI) have physical impairments such as muscle paralysis in legs which make standing balance difficult. Poor balance control often leads to falls, injuries, and hospitalization. Therefore, improvement of standing balance is an important therapeutic goal for these individuals. Our team has shown that a therapy called visual feedback training (VFT) can improve standing balance by allowing individuals with iSCI to actively participate and follow visual feedback of their body sway on a screen like a computer game. We have also found that the application of low-energy electrical pulses to weak muscles called functional electrical stimulation (FES) during VFT can enhance the training effects. Recently, transcutaneous spinal cord stimulation (TSCS) has been discussed as a promising technique to further promote the rehabilitation effects after SCI by enhancing the connectivity between the brain and spinal cord and within the spinal pathways. However, to date, the potential of combining the two techniques (TSCS+FES) to improve the standing balance remains unknown. In this study, through the completion of a clinical trial, we will investigate the effects of an intervention that combines lumbar TSCS with FES of ankle muscles during VFT on the functional and neurophysiological outcomes in individuals living with iSCI. Participants will be randomly allocated to receive combined TSCS with FES or FES alone during VFT for 12 training sessions over 4 weeks. We expect that the new therapy would further improve balance and strengthen the neural connections between the brain and muscles. The expected changes in the neural connections will be measured by recording electrical signals from the lower limb muscles following stimulation of the motor region of the brain. Results of this study will be used for a larger-scale study in people with iSCI to improve balance and reduce falls during their daily life activities.
The study will be directed to compare which of whole body vibration (WBV) training and Functional strength training (FST) has better effect on balance in children with hemiparesis
The aim of this study is to evaluate the effects of proprioceptive neuromuscular facilitation strengthening exercises and de-Lorme and Watkins exercises program in stroke patients with upper limb weakness in chronic stroke patients. The randomized central trial will recruit patients according to consecutive sampling into two intervention groups. One group will receive proprioceptive neuromuscular facilitation strengthening exercises and other group will receive de-Lorme and Watkins exercises program.