View clinical trials related to Stroke.
Filter by:A lot of patients suffer the balance and gait disorders after stroke. Many rehabilitation therapies have been provided to improve the balance and gait function in stroke patients. However, most rehabilitation therapies are performed in only hospitals, in spite of the difficulty of moving from home to hospitals for stroke patients. Home-based smart rehabilitation system (Uincare®, D-gate Co.) can provide the specific rehabilitation training program to stroke patients in their home. This study aims to investigate the effects of the home-based exercise program with smart rehabilitation system on balance and gait functions in stroke patients.
This is a single institutional registry database for the patients with stroke and cerebrovascular diseases. Stroke is the fifth leading cause of death in the United States. Despite extensive research, most of the patients die or suffer from varying degree of post-stroke disabilities due to neurologic deficits. This registry aims to understand the disease and examine the disease dynamics in the local community.
Objective: To make use of admission Modified Functional Ambulation Category (MFAC) as a stratification tool to reveal profiles of functional outcomes of patients with stroke in inpatient rehabilitation. Design: This was a retrospective, descriptive study of the demographic, functional outcomes of patients with stroke in an inpatient rehabilitation centre. A total of 2,722 patients completed a stroke rehabilitation program from 2011 to 2015 were recruited.
Repetitive transcranial magnetic stimulation (rTMS) or transcranial direct current stimulation (tDCS) has been used for the modulation of stroke patients' motor function by altering the cortical excitability. Recently, more challenging approaches, such as stimulation of two or more sites or use of dual modality have been studied in stroke patients. In this study, simultaneous stimulation using both rTMS and tDCS (dual-mode stimulation) over bilateral primary motor cortices (M1s) was investigated to compare its modulatory effects with single rTMS stimulation in subacute stroke patients.
Individuals with stroke show abnormal movement pattern of upper limb. The movement pattern needs to be corrected. There are several methods to train normal movement. Exercise with technology is an active movement and affects sensory and cognitive systems. It may benefit to individuals with stroke in training.
This study investigated whether electrical stimulation (ES) prior to a hand function training session for a total of eight weeks can better improve neuromuscular control and hand function in subacute stroke individuals and change electroencephalography-electromyography (EEG-EMG) coherence, as compared to the control (sham ES).
This research aims to integrate and develop a novel Brain-Computer Interface (BCI) controlled soft robotic glove, evaluate the ability of the glove in achieving common hand grasping postures and to assess the efficacy of the glove in assisting stroke patients with completing functional tasks. The BCI-controlled soft robotic glove utilizes patients' user intent to deliver specific electroencephalographic patterns that can trigger robot-assisted hand movement to the affected hand.
Hypertonic saline is used to treat elevated intracranial pressure. Intraosseous vascular access has been used to administer fluids and medications. This study combines these to administer 3% hypertonic saline via IO.
This prospective non-interventional cohort study investigates the pathophysiology of Atrial Fibrillation Detected After Stroke or transient ischemic attack (AFDAS) by comparing the autonomic function and inflammation between patients with AFDAS, patients with atrial fibrillation (AF) diagnosed before the ischemic event or known AF (KAF), and patients with normal sinus rhythm (NSR) after 14 day of cardiac monitoring following the event onset.
The study is designed to explore the effectiveness of non-invasive cerebellar stimulation to enhance motor plasticity in the cortex after stroke. The investigators have shown that the human cerebellum is strongly activated during the act of swallowing and when stimulated with single TMS pulses can strongly facilitate the corticobulbar projection to the pharynx in humans. More recently the investigators have identified the most relevant frequency of stimulation of the cerebellum that can produce longer term excitation in the human swallowing motor system. The investigators therefore believe that the potential for cerebellar stimulation in improving swallowing is much greater than other methods for two reasons. Firstly, previous work has shown that unlike successful recovery of hand/arm function which relies on restoring activity in the stroke hemisphere, recovery of swallowing function relies on increased excitability in intact projections from the non-stroke hemisphere. The investigators believe that methods that can enhance these undamaged pathways have a greater chance of inducing recovery in the human swallowing system in unilateral stroke. Additionally cerebellar stimulation produces very high levels of corticobulbar excitation it may also have the advantage of improving dysphagia in posterior fossa strokes. Second, the human cerebellum is relatively easy to target and stimulate and has reduced risk of inducing unwanted effects (such as seizures) which as a consequence makes cerebellar stimulation a more pragmatic method for delivering therapeutic neurorehabilitation to dysphagic stroke patients compared to other more complex/riskier methods. A final factor is that the investigators have developed a "virtual lesion" model of swallowing dysfunction in healthy volunteers which can be reversed quite successfully with other neuro-stimulation protocols. The investigators can therefore use this model to test the effectiveness of cerebellar stimulation protocols (ipsilateral and contralateral cerebellar sites) before choosing the most effective side to apply stimulation in a proof of principle trial/study in a small group of sub-acute dysphagic patients. The hypotheses are that cerebellar TMS will: i. Reverse the brain inhibition and behavioural dysfunction following a virtual lesion model of disrupted swallowing in healthy brain (phase 1); ii. Reduce the degree of aspiration in acute dysphagia after a stroke (phase 2).