View clinical trials related to Stroke.
Filter by:There is a lack of effective therapies for hand and finger function recovery in people with chronic stroke. This study assessed the effects of combining vibration stimulation with task-oriented training on functional recovery, and treatment persistence. Participants with chronic stroke underwent 24 sessions of vibration stimulation combined with task-oriented training over 12 weeks, in addition to regular therapy. Functional recovery was assessed using the Fugl-Meyer assessment for motor function (FMA-wrist and hand), the Box and Blocks Test (BBT) for hand dexterity, and the Motor Activity Log (MAL) for daily functional activities. Minimal detectable change (MDC) and minimal important difference (MID) criteria were applied to interpret changes in assessment scores.
Unilateral Spatial Neglect (USN) is a relatively common neuropsychological syndrome following stroke. It is characterized by difficulties in detecting, orienting and identifying events located in the hemispace contralateral to a brain lesion, unrelated to a primary motor or sensory disorder. Numerous methods have been developed for the rehabilitation of this syndrome. However, limitations in terms of efficacy are highlighted. These limitations may be linked to the fact that these methods are restricted to certain sensory modalities, thus failing to take into account the heterogeneity of the syndrome. Moreover, some patients' adherence to rehabilitation programs can also be complicated by motivational difficulties. Immersive Virtual Reality could help overcome these limitations. Indeed, it enables the introduction of new sensory modalities, notably auditory, to support a better apprehension of space. The main objective of this study is to determine the efficacy of an immersive virtual reality rehabilitation protocol based on musical practice in patients suffering from USN. This study also aims to explore the benefits of this rehabilitation protocol on patients' daily lives, as well as to explore the influence of patients' mood and motivation on the benefits of the immersive virtual reality rehabilitation protocol. To achieve these goals, patients will benefit from immersive virtual reality rehabilitation based on music practice. This rehabilitation will be compared to conventional USN rehabilitation. To this end, patients will be divided into two groups: classical rehabilitation only or classical rehabilitation and immersive virtual reality in parallel. Each patient will be randomly assigned to one of the two groups for a period of 2 weeks. Pre- and post-rehabilitation assessments will be provided.
INTRODUCTION: Clubfoot, drop foot or clubfoot, is a disorder that prevents reaching 100º of dorsiflexion actively. Its etiology is varied, and may be due to congenital problems, direct alteration of the bone structure, spasticity or shortening of the posterior musculature (triceps suralis), a neurological factor or a combination of several. Thus, we can differentiate between congenital clubfoot and acquired clubfoot. Stroke is one of the main causes of acquired clubfoot, which is due to paralysis of the dorsiflexor musculature and/or spasticity of the plantar flexor musculature. Electrical stimulation is able to increase muscle activation by depolarization of the motor plate and modulation of nerve conduction. This can be done transcutaneously, through surface electrodes or percutaneously through needles, so neuromodulation is presented as a tool applicable to the pathology of the equine foot, if we take into account the increased activation of the dorsiflexors of the foot. OBJECTIVE: The main objective is to evaluate which of the techniques, percutaneous or transcutaneous, is more effective for the approach of clubfoot in post-stroke patients. METHODOLOGY: a clinical trial with randomized probabilistic assignment in four groups is proposed: G1 (percutaneous neuromodulation): patients will receive a needle circuit approaching the deep peroneal nerve in an ultrasound-guided manner. They will receive a 20-30Hz symmetrical biphasic current; G2 (transcutaneous neuromodulation): patients will have a superficial electrode circuit placed over the belly of the tibialis anterior muscle. They will receive a symmetrical biphasic current of 20-30Hz; G3 (placebo-percutaneous group): in which the patients will receive the neuromodulation circuit with needles at 0 intensity; G2 (placebo-transcutaneous group): the patients will receive the electrodes at 0 intensity over the belly of the tibialis anterior muscle. The variables to be analyzed are: anthropometric variables (age, weight, height, BMI), muscle oxygenation (SatO2, O2Hb, HHb and THb), muscle strength of the foot dorsiflexors measured with dynamometer, muscle activation by surface electromyography, active and passive joint balance with goniometry or inclinometer, assessment of gait and balance, assessment of load distribution by static and dynamic pressure platform, spasticity and questionnaire on quality of life and functionality. The acute effects after one intervention session (pre-post intervention of one session) and the effects after a 10-session program will be analyzed.
Extracorporeal shock wave therapy (ESWT) has emerged as an effective therapeutic intervention for addressing post-stroke limb spasticity. This research aims to explore the therapeutic implications of focused ESWT for wrist and finger flexor muscles in patients suffering from post-stroke upper limb spasticity.
Telerehabilitation is an effective rehabilitation method that allows patients to receive physiotherapy remotely in their homes. The purpose of this study was to investigate the effects of home-based remote group training for balance and mobility on activities and body functions.
The acute vertebrobasilar occlusion associated with the poor prognosis, particularly tandem occlusion. However, few data on the efficacy of the endovascular therapy was indicated in this occlusion. The investigators reported whether the additional rescue extracranial stenting improved clinical outcome by modified Rankin Scale (mRS) score within 3 months after the procedure
Transcranial magnetic stimulation (TMS) interventions could feasibly strengthen residual corticospinal tract (CST) connections and promote poststroke hand motor recovery. To maximize the effects of such interventions, they must be delivered during brain activity patterns during which TMS best activates the residual CST and enhances its neural transmission. This approach is termed brain state-dependent TMS. The investigators have recently developed a machine learning framework that identifies personalized brain activity patterns reflecting strong CST activation in neurotypical adults. In this study, the investigators will apply this framework to the poststroke brain for the first time. They will also evaluate relationships between this framework's ability to detect strong and weak CST activation states and measures of CST pathway integrity. Participants will visit the laboratory for two days of testing that are separated by at least one night of sleep. On Day 1, participants will provide their informed consent. The MacArthur Competence Assessment Tool and the Frenchay Aphasia Screening Test will be used to evaluate consent capacity and confirm the presence of expressive aphasia as needed. Afterwards, participants will complete eligibility screening and clinical assessment of upper extremity motor impairment, motor function, and disability using the Upper Extremity Fugl-Meyer Assessment, the Wolf Motor Function Test, and the Modified Rankin Scale. Participants will then be screened for the presence of residual CST connections from the lesioned hemisphere to the affected first dorsal interosseous muscle. Recording electrodes will be attached to this muscle in order to record TMS-evoked twitches in these muscles. During this procedure, single-pulse TMS will be applied to each point of a 1 cm resolution grid covering primary and secondary motor areas of the lesioned hemisphere at maximum stimulator output. If TMS reliably elicits a muscle twitch in the affected first dorsal interosseous, that participant will be considered to have residual CST connections and will be eligible for the full study. If no muscle twitch is observed, the participant will not be eligible for the full study. Afterwards, recording electrodes will be removed and the participant will leave the laboratory. On Day 2, participants will return to the laboratory. The investigators will confirm continued eligibility and place recording electrodes on the scalp using a swim-type cap. The investigators will also place recording electrodes on the affected first dorsal interosseous as well as the affected abductor pollicis brevis and extensor digitorum communis muscles. After identifying the scalp location at which TMS best elicits muscle twitches in the affected first dorsal interosseous muscle, the investigators will determine the lowest possible TMS intensity that such evokes muscle twitches at least half of the time. Then, the investigators will deliver 6 blocks of 100 single TMS pulses while participants rest quietly with their eyes open. Stimulation will be delivered at an intensity that is 20% greater than the lowest possible TMS intensity that evokes muscle twitches at least half the time. Afterwards, all electrodes will be removed, participation will be complete, and participants will leave the laboratory. The investigators will recruit a total of 20 chronic stroke survivors for this study.
Aim of the study: The first aim of this study is to validate the translation of the Affinity for Technology Interaction (ATI) questionnaire. This questionnaire was developed in English by Franke, Attig and Wessel in 2019. It consists of 9 items and was developed to assess a person's tendency to actively engage in technological interaction, or the ease with which a person uses technological tools. Currently, the questionnaire has been translated into French by our research team according to good practice recommendations (Guillemin, Bombardier and Beaton, 1993; Tsang et al., 2017), but this French version has not yet been validated. To validate the translation of a questionnaire, it is necessary to have it completed by a large number of subjects from the population of interest. In neurorehabilitation, measuring this affinity will make it possible to better identify patients who are more likely to adhere to tele-rehabilitation and thus direct them towards this type of treatment as a complement to conventional rehabilitation. The second objective is to determine the extent to which the general population is prepared to use technological tools as part of their rehabilitation. The aim is to gain a better understanding of the profile of people who could potentially benefit from tele-rehabilitation. Accessibility to the technologies, their expectations and barriers will also be explored as part of this study.
Conditions such as hemiparesis, sensory and motor impairment, perceptual impairment, cognitive impairment, aphasia, and dysphagia may be observed after stroke. Motor impairment after stroke may occur due to damage to any part of the brain related to motor control. There is much clinical evidence that damage to different parts of the sensorimotor cortex in humans affects other aspects of motor function. Loss of strength, spasticity, limb apraxia, loss of voluntary movements, Babinski sign, and motor neglect are typical motor deficits following a cortical lesion (upper motor neuron lesion). Post-stroke spasticity can be seen in 19% to 92% of stroke survivors. Post-stroke hemiparesis is a significant cause of morbidity and disability, along with abnormal muscle tone. It has also been recognized that post-stroke hemiparesis may occur without spasticity. Spasticity seen after stroke causes loss of movement control, painful spasms, abnormal posture, increased muscle tone, and a general decrease in muscle function, and may affect limb blood flow. Studies in the literature show that spasticity can affect limb blood flow. This study aims to investigate the relationship between muscle oxygenation and spasticity in post-stroke hemiparetic patients based on the idea that oxygenation may be insufficient as a result of restriction of blood flow on the affected side due to spasticity in stroke patients.
The purpose of this study is to evaluate a cognitive-motor exercise on dual-task interference during dual-task ankle movement and the corresponding alterations of brain activity.