View clinical trials related to Muscle Spasticity.
Filter by:Spasticity is muscle spasms, bouncing (clonus) or stiffness that can negatively impact the quality of life of people with spinal cord injury (SCI). In people with spinal cord injury, spasticity can limit muscle control of the arms and hands and cause pain, discomfort, and frustration. Transcutaneous electrical stimulation has been shown to reduce spasticity after SCI. However, this type of stimulation's effects during prolonged, at-home use has not been well studied. Additionally, traditional stimulation techniques are often only available in the clinic. Therefore, this study aims to identify if wearable intensive nerve stimulation decreases spasticity in the legs of people with SCI, and if this intervention is usable and desirable to individuals with SCI.
This research project is being conducted to investigate changes in secondary impairments, functional mobility skills, and gait variables in children with spasticity following selective percutaneous myofascial lengthening. The research project proposed here will be the first to use instrumented three-dimensional motion analysis to investigate the effects of selective percutaneous myofascial lengthening on gait kinematics and kinetics. The objectives of the study are to: 1. Compare gait kinematics and kinetics in children and young adults with lower extremity spasticity before and after selective percutaneous myofascial lengthening to determine the effects of this procedure on functional mobility. 2. Identify changes in impairments and activity limitations following selective percutaneous myofascial lengthening . 3. Identify changes in a family or caregivers perceived quality of life after their child's selective percutaneous myofascial lengthening . The aim of this study is to identify and describe the specific changes in secondary musculoskeletal impairments, activity limitations, and gait kinematics and kinetics after a selective percutaneous myofascial lengthening procedure. Gait kinematics and kinetics includes the motion of joints and body segments, and force and power, at each lower extremity joint, respectively. The results of this study will provide preliminary information on how this form of soft tissue lengthening affects functional mobility skills in children with spasticity. The study is expected to run for two years and the primary study endpoint is when participants have completed their second post- operative data collection session.
To target spasticity, balance and mobility whole body vibration exercises along with selected physical therapy is given to experimental group. Control group will receive only selected physical therapy that includes sstretching exercises, gait training, ffacilitation of postural reactions, ffacilitation of standing and weight shift and facilitation of standing balance by using a balance board.
Spasticity is a common manifestation of lesions of central motor pathways, such as after stroke, traumatic brain or spinal cord injury and in cerebral palsy and is associated with increased impairments and disabilities. Spasticity may be associated with pain and contractures, caused by muscle weakness, reduced muscle length and volume that add to the disability.Treatments of spasticity comprise physical therapy, pharmacological agents and surgical treatment. Recently, a systematic review concluded that transcutaneous, electric nerve stimulation may have beneficial effects on spasticity and activity performance after stroke, which lends support to the new treatment method Mollii, which will be evaluated in this study.The Mollii suit provides electric stimulation through multiple electrodes places in a tight fitting suit. This study relates to the clinical trials performed at the University department of rehabilitation medicine at Danderyd Hospital in Stockholm and comprises an initial study of effects on spasticity ("Mechanical substudy") and a following, exploratory treatment trial ("Clinical substudy") in patients with spasticity after stroke.
The reticulospinal pathway (RSP) is at the center of spasticity mechanism. The RSP indirectly synapses with motor neurons via interneurons in the ventromedial intermediate zone in both halves of the spinal cord, and directly synapses with motor neurons of proximal extremity muscles. The main motor cortex region controlling unilateral RSP is the premotor cortex. That is, a single limb is represented in both premotor cortices. This suggests theoretically that if the corticoreticular pathway controlling RSP is modulated by dorsal premotor cortex stimulation, there may be a change in the regulation of the intraspinal network regulating the stretch reflex. Therefore, the hypothesis in this study is that the application of repetitive transcranial magnetic stimulation (rTMS) over the contralesional dorsal premotor cortex in chronic stroke patients changes the severity of spasticity.
The purpose of the protocol is to assess the longitudinal attainment of person-centered and function related goals of patients who receive AbobotulinumtoxinA (aboBoNT-A) injections for adult lower limb spasticity over a period of 16 months.
Botulinum toxin A (BoNT A) has been reported to be effective in the treatment of elbow flexor spasticity. Although BoNT A is an efficacious treatment option, there is a debate in the selection of target muscle(s) for BoNT injection in the treatment of poststroke elbow flexor spasticity. The decision of muscle selection for BoNT A injection is mostly made according to the physical examination findings in real life practice.One of the guiding findings in this decision is the position of the spastic arm. In this study, hypothesis is that the change in severity of spasticity with BoNT A injection differs depending on the muscle selection in chronic stroke patients with elbow flexor and forearm pronator spasticity.
Spasticity is commonly observed in neurological conditions such as Multiple Sclerosis and spinal cord injury. "Peripheral" spasticity, concerning in particular the striated muscles of the limbs is nowadays well known and studied with clinical scales (Ashworth, Taridieu...) or even electrophysiological methods (H-reflex, T-reflex...). However, this spasticity can also affect the perineal muscles and more generally the pelvic muscles. However, there is to date no validated and standardized method for evaluating this pelvi-perineal spasticity. The aim of the study will be to assess the spinal motoneurons excitability by using the stimulus-response curves of the bulbocavernosus reflex.
This study evaluates the optimal interstimulus interval for consecutive H-reflex responses in patients with spasticity.
The main objective is to study the variability and evolution of single-fiber jitter and fiber density (FD) electrophysiological parameters in a spastic muscle during botulinum toxin type A (BTA) treatment in hemiplegic patients after stroke, according to primary or multi-injected status. The secondary objectives of this study are: A. To establish a correlation between single-fibre electrophysiological parameters and the therapeutic response to BTA, clinically estimated by the MAS scale. B. Creation of a database on single fibre parameters to determine a Jitter numerical threshold beyond which the effect of BTA appears to be decreasing according to the clinical evaluation by the MAS (Modified Ashworth Scale).