View clinical trials related to Stroke.
Filter by:This study assess the relationship between lower limb spasticity and trunk movements during static and dynamic balance in post-stroke patients who also underwent conventional physical therapy, visual feedback balance training and radial extracorporeal shock wave therapy intervention.
1. To assess Hemodynamic changes in rtPA receiving Acute Ischaemic Stroke patients. 2. To assess the efficacy of rtPA in treatment of Acute Ischaemic Stroke patients. 3. To correlate TCD findings (post treatment) with one of standard vascular imaging in AIS (CTA or MRA).
Prospective, single-center, clinical registry of patients with acute stroke of carotid artery bifurcation origin undergoing endovascular treatment using the Micronet-covered CGUARD Stent to seal the culprit lesion under proximal cerebral protection (by transient flow reversal using the MoMa or FlowGate catheter) with thrombus retrieval achieved through active aspiration ± stentriever use. A study involving clinical and cerebrovascular imaging data evaluation in consecutive patients with acute stroke of carotid artery bifurcation origin, presenting in the time-window and/or cerebral tissue window allowing guideline-indicated reperfusion by interventional management. A registry of consecutive patients with the study condition. An open-label study, without randomization - a single arm, single-center study in John Paul II Hospital in Krakow, Poland.
The investigators will conduct a randomized, double-blinded, sham-controlled trial of approximately 60 patients with minor stroke and post-stroke mild cognitive impairment (psMCI). Participants will be individually randomized on enrollment using a random number generator to treatment with anodal tDCS + computerized cognitive treatment (CCT) versus sham + CCT (approximately 30 patients in each arm). Clinical evaluation including assessment of cognition will be performed pre- and post-intervention by individuals on the study team blinded to the participant's intervention. Participants will also undergo functional neuroimaging with magnetoencephalography (MEG) pre- and post-intervention (1, 3, and 6 months post-stroke to evaluate for initial and longer-term effects of treatment on cerebral activation patterns and functional connectivity). Neuroimaging and clinical outcomes will be assessed to determine the effect of tDCS versus sham + CCT on psMCI.
The purpose of this study was to assess the efficacy of augmented and virtual reality-based rehabilitation programs on improving upper extremity function in subacute stroke patients.
The current guideline recommends to give antithrombotic treatment 24 hours after intravenous thrombolysis in acute ischemic stroke. However, early neurological deterioration will occur in some patients due to no antithrombotic treatment, which is closely associated with poor outcome. The current trial aims to investigate the effectiveness and safety of early antithrombotic treatment after intravenous thrombolysis in minor stroke.
Stroke is a public health issue and a priority for our institution. MRI plays an essential role in the management of stroke. In this context, the contribution of MRI is diagnostic, etiological and prognostic. Among the MRI parameters evaluated in the acute phase of the stroke, the evaluation of the mismatch between the DIFFUSION and FLAIR sequences is crucial as it will directly contribute to the therapeutic decision. A FLAIR-diffusion mismatch, i.e., a lesion with a diffusion but not a FLAIR hypersignal, identifies patients whose time of onset of symptoms is probably less than 4.5 hours. It is therefore understandable that the main arterial recanalization techniques performed in the acute phase are primarily reserved for patients with a positive mismatch. In current practice, mismatch assessment is performed subjectively, by visually comparing the two sequences, which is known to be the cause of a lack of reproducibility and diagnostic performance. Computational medical imaging techniques ("radiomics") have recently gained momentum and offer the prospect of automated and therefore more reproducible analysis of medical imaging data. In stroke patients, radiomics extracted from FLAIR imaging could thus contribute to describe the "diffusion flair" mismatch in a continuous and objective way. For the time being, data analysis cannot be performed in real time due to technical constraints. If it is proven that radiomics can reliably analyze the mismatch on the FLAIR sequence alone, the next step will be to make the analysis feasible in clinical routine (i.e. in a time frame adapted to the therapeutic management).
Magnetic susceptibility imaging is a magnetic resonance imaging (MRI) technique that uses the magnetic properties of tissues and the BOLD (blood oxygen level-dependent) effect. It allows a better visualization of venous structures and hemorrhagic lesions. These sequences are now used in clinical routine. The extreme sensitivity of these sequences to the oxy/deoxyhemoglobin ratio makes it possible to describe a new MRI semiology, particularly in the context of cerebral ischemia. The interest of the analysis of the venous network signal, which can reflect cerebral perfusion, has been reported. However, the influence of the hematocrit level on the signal of the venous network in magnetic susceptibility imaging has not been evaluated at present. It seems important to better define the influence of hematocrit level on the signal of the veins with this sequence to avoid potential diagnostic errors.
Stroke, described as a neurological deficit caused by the interruption of cerebral blood flow, is one of the leading causes of mortality and morbidity throughout the world. It is the second most common medical condition and the major cause of disability in adults. Recovery following stroke revolves around the severity of sensory, motor, and cognitive impairments. Lower extremity impairment is one of the major post-stroke conditions which can cause difficulty in performing activities of daily living, gait abnormalities, increased risk of fall, and restriction in social participation. Rehabilitation after stroke is the primary mechanism through which it can achieve functional recovery and independence, which is based on the principles of motor learning and neuroplasticity.
Neurogenic dysphagia occurs with disruption of neurological systems or processes involved in the execution of coordinated and safe swallowing. It is common in patients with neurological diseases, in particular in patients treated in Intensive Care Units (ICU) who are intubated (up to 62%) and / or tracheotomised (up to 83%). Dysphagia is one of the most common and most dangerous symptoms of many neurological diseases. In addition, neurogenic dysphagia can have a significant impact on quality of life, medication efficacy, and malnutrition. Dysphagia is currently treated conservatively on evidence-based exercises, individually adapted to each patient. In the recent years pharyngeal electrostimulation has been established and shown a positive impact on outcome. In fact, this type of therapy has not only become an addition to the existing therapy, but an important alternative for patients difficult to treat by other means. The Phagenyx® is a medical device, which has lately been used more frequently in multiple hospitals for treatment of neurogenic dysphagia. For nearly two decades pharyngeal electrostimulation has been further developed and optimised. This therapy initiates changes in the swallowing motor cortex through neuroplasticity as well as local changes in peripheral sensory architecture associated with swallowing. Bath and colleagues (2020) recently reported the efficacy of pharyngeal electrostimulation (Phagenyx®) in various neurological conditions. As a result, of current published studies, the use of pharyngeal electrostimulation probe, in selected patients, with neurological diseases with moderate to severe neurogenic dysphagia will be evaluated. This trial will initially start as quality assurance project with the aim to extent it into a monocentric based register study. The Investigators aim to validate the effectiveness of pharyngeal electrostimulation for the treatment of moderate to severe neurogenic dysphagia by systematically recording specific dysphagia-relevant parameters. At present, it is still uncertain to what extent patients with neurogenic dysphagia in the context of a non-acute neurological disease could benefit from this method. The research questions: Does the use of the pharyngeal electrostimulation probe have an influence on the outcome of dysphagia in patients with moderate to severe neurogenic dysphagia? How long after therapy, can the use of the pharyngeal electrostimulation probe lead to oral food intake and/or removal of a tracheal cannula?