Rehabilitation interventions including resistance training, functional and task-specific therapy, and gait or locomotor training have been shown to be successful in improving motor function in individuals with neurologic disease or injury. Recent investigations conducted in our laboratory indicate that intense resistance training coupled with task-specific functional training lead to significant gains in functional motor recovery. Similarly, gait rehabilitation involving intense treadmill training and/or task-specific locomotor training has been shown to be effective in improving locomotor ability. However, the underlying neural adaptations associated with these therapeutic approaches are not well understood. Our primary goal is to understand the motor control underpinnings of neurologic rehabilitation in order to apply this knowledge to future generations of therapeutic interventions.

RESTORE is a database of individuals who are interested in being contacted about future stroke research at the Medical University of South Carolina. Included in the database is health information and characteristics about the individual's health, stroke, and their recovery. The results of other stroke recovery studies the individual participates in at MUSC will also be in the database. The database and information included will lead to better and more targeted recruitment for stroke recovery projects.

Reflexes are important parts of our movements. When reflexes are not working well, movements are clumsy or even impossible. After stroke, reflex responses may change. Researchers have found that people can learn to increase or decrease a reflex response with training. Recently, we have found that rats and people with partial spinal cord injuries can walk better after they are trained to change a spinal cord reflex. Thus, learning to change a reflex response may help people recover after a nervous system injury. In this study, we aim to examine whether learning to change a spinal reflex through operant conditioning training can improve movement function recovery in people after stroke or other damage to the nervous system.

Stroke affects millions of Americans and is a leading cause of disability. In addition to chronic disability, many survivors experience depressive symptoms such as reductions in mood and motivation. Post-stroke depression (PSD) is associated with poorer recovery from stroke, increased health care costs and higher mortality. Additionally, PSD may interfere with the recovery of the nervous system after stroke. Effective treatment options for PSD are limited and often come with side effects, highlighting the need for alternative treatment approaches. Aerobic exercise (AEx) has positive effects on the nervous system, is a powerful anti-depressant, and has limited side effects, yet remains underutilized in stroke survivors with PSD. This study will examine the short-term effects of AEx on the nervous system in stroke survivors with and without PSD. The results will serve as a foundation for the study of AEx as a treatment for PSD.

This research is being done to find out if brain stimulation combined with a rehabilitation therapy improves arm weakness as a result of having a stroke. The stimulation technique is called transcranial direct current stimulation (tDCS). The treatment uses direct electrical currents to stimulate specific parts of the brain. The rehabilitation therapy is called "modified Constraint Induced Movement Therapy" (mCIMT). During this rehabilitation therapy study participants will wear a mitt on the hand of the arm that was not affected by their stroke. It is designed to restrain the use of the unaffected arm, while performing therapy with impaired one.
It is not known if brain stimulation combined with rehabilitation therapy will improve arm weakness. Study participants will receive rehabilitation therapy while on this study. Study participants may or may not receive the brain stimulation therapy.

The goal of this study is to determine the pattern of cognitive impairment in chronic stroke, both in terms of performance during cognitive testing as well as brain neurocircuit activation.

The purpose of this study is to determine if 3-dimensional finger force training is an effective tool in restoring hand function post stroke. Persons who survived a stroke 3 to 12 months ago and have a hand impairment will be eligible to participate in this study. Participants will be asked to come to the laboratory to practice controlling the finger force generation 3 times a week for 6 weeks. Participants will see their performance on a computer screen. Participants will also come to the laboratory for additional 4-7 visits for assessments of their upper extremity function. The total duration of the study will be 2.5 months.

Hand disability after stroke has a profound negative impact on functional ability and independence. Hand therapy may be augmented with sensory stimulation for better outcomes. We have developed a novel sensory stimulation - unfelt vibration applied via a wristwatch. In this study, we will determine if combining this stimulation with hand task practice is superior to hand task practice alone.

The purpose of the study is to compare the effects of apixaban (also known as Eliquis®) with aspirin in patients with atrial fibrillation and a recent brain hemorrhage to see which is better in preventing strokes and death.

Subjects will be in the research study for up to 3 years (minimum of 1 year). About 700 people will take part in this study at approximately 125 sites throughout the United States.

After a stroke, many people experience a language impairment called aphasia. One of the most debilitating types of aphasia is non-fluent aphasia. Non-fluent aphasia is defined by significantly reduced speech production, with the speaker producing only a few words or even less. Speech entrainment therapy (SET) is a treatment that has been shown to increase fluency in people with non-fluent aphasia. Our study looks to define the best dose of SET that leads to sustained improvements in spontaneous speech production.
Participants who are eligible will undergo baseline language testing, an MRI, and will be randomized into one of 4 treatment groups: SET for 3 weeks, SET for 4.5 weeks, SET for 6 weeks, and no treatment (control group).