Apathy is a common set of symptoms seen in many people following a stroke. Apathy occurs when a person has lost motivation, becomes withdrawn, and stops doing things that used to be important to them. Apathy has a large negative impact on a person's quality of life, and can also have a large impact the people who take care of individuals with apathy. There are currently no FDA-approved treatments to help with apathy, and other services like therapy may be difficult to access for people who have had a stroke. To address this problem, we are conducting a study to find out if a form of treatment called repetitive transcranial magnetic stimulation (rTMS) can be safe and helpful for people struggling with apathy after a stroke. Our study will apply a new form of rTMS which can be delivered quickly to a part of the brain called the medial prefrontal cortex (mPFC). Our study will help establish whether this treatment is safe, comfortable, and effective for people with apathy after a stroke, and will help researchers develop new forms of treatment.

This study will apply a novel imaging technique in patients with brain tumors to systematically evaluate the impact of various imaging parameters on image appearance, contrast, signal, and tumor sharpness, and to optimize the technique to maximize tumor visibility while minimizing scan time and image artifacts.

This is an observational non-medication study. The purpose of this study is to understand the immune system in people who are at risk for developing systemic lupus erythematosus ("lupus" or "SLE"). The investigators hope to develop better ways to predict who will get lupus and possibly come up with ideas for new treatments that can prevent or treat the disease.

Participants will be asked to complete 4 annual study visits and monthly telephone contacts with the study team over the course of 3 years. Visits will include a physical exam, collection of blood and urine, and the completion of some surveys/questionnaires about your health and wellbeing. The monthly phone calls will be a brief contact to check on any changes in your health and should take no longer than 15 minutes to complete.

Compensation is available for participation.

This study is being done to understand whether a different type of electroencephalography (EEG) monitoring that permits longer monitoring is able to capture more seizures than regular EEG monitoring, and whether this new type of monitoring will improve clinical care. This type of EEG monitoring (REMI) is currently cleared by the United States Government Food and Drug Administration (or FDA) for use in hospitals but not yet cleared to be used at home.
Eligible subjects who have EEG monitoring scheduled with either a 3-day EEG monitoring performed at home or with a 3-day EEG monitoring schedule at the Medical University of South Carolina (MUSC). Subjects are in the study for approximately 4 weeks and will need to come to the study center for one or two visits. They will be asked to wear 4 of Epitel's REMI Sensors on their head, in addition to the regular EEG electrodes, for two 2-week REMI EEG monitoring periods. A 2nd visit (clinic visit) at MUSC may be needed if the recording is at MUSC, in order to start the second REMI EEG monitoring session.
At the end of the study, three independent epileptologists will review the REMI EEG recordings and compile a report of any findings. They will then provide this report to the subject's neurologist who will assess the value of the additional EEG information, and save the report within the MUSC medical record.

Hypermobile EDS and hypermobile spectrum disorder (collectively referred to as hEDS) are estimated to affect 1 in 500 individuals worldwide. hEDS patients have limited treatment options for their numerous symptoms that impact the quality of life. This clinical trial tests a new ear stimulation method in hEDS patients to determine if it may improve quality of life.

This is a study comparing the new class anticoagulants factor XIa to the FDA approved Apixaban. The study is to determine if Milvexian is as effective and safe with preventing clots for patients with A-fib and to determine if Milvexian is better at reducing the chances of bleeding.

This is a study comparing the new class anticoagulants factor XIa to the FDA approved Apixaban. The study is to determine if Milvexian is as effective and safe with preventing clots for patients with A-fib and to determine if Milvexian is better at reducing the chances of bleeding.

The purpose of this research is to determine the safety and tolerability, the best dose for future development, as well as antitumor activity of a new antibody drug conjugate (ADC) called MYTX-011. MYTX-011 is a new drug, being studied in humans for the first time for treatment of advanced non-small cell lung cancer. The study team is investigating this drug to help treat lung cancers that are resistant to standard medications. This drug targets a protein called cMET on the cancer cell. MYTX-011 will attach to the cMET and release chemotherapy into the cancer cell.

The goal of this study proposal is to develop a biorepository which will collect and store central nervous system (CNS) tissue, connective tissue, blood, or cerebral spinal fluid (CSF) for future research. This material will be collected from children with CNS conditions or defects. This will be a very useful resource to scientists who work to develop new approaches to prevent and treat conditions that affect children's brains and nervous systems.

This study is designed to learn about the safety and effectiveness of a new gene therapy called KB408 for Alpha-1 Antitrypsin Deficiency (AATD). AATD is an inherited condition in which a person has low blood levels of a protein known as alpha-1 protease inhibitor (called Alpha1-PI). AATD causes an increased risk of chronic obstructive pulmonary disease (COPD) in the form of emphysema (long term lung disease) and, less frequently, other diseases.
KB408 delivers copies of the genes that produce AAT to the lungs and is given by inhaling a mist (called nebulization). The genes are carried and delivered by a modified herpes simplex virus type 1 (HSV-1). This virus is not harmful and simply acts as a vehicle to deliver the genes to the lungs. The genes that are delivered by KB408 do not change a person's own DNA. This is an open-label study, meaning that the participants, the study doctor, and the sponsor all know that the participants are receiving KB408. KB408 is an investigational product, meaning it is not approved for commercial use by the FDA.
Eligible participants will receive one of three doses of KB408. Participants will have a screening visit first to make sure that they are able to participate in the study. After the screening visit, participants will need to return to the study center for follow up visits. The number of follow up visits depends on which cohort the subject is enrolled in. At the second visit, participants will receive the study drug. In Cohort 2b, subjects will have repeat dosing. Each visit will take between 2 and 8 hours to complete. Study procedures include medical history collection, vitals, physical exam, ECG, spirometry and DLCO, urine cotinine test, blood work, cheek swab, sputum sample, and bronchoscopy.
Possible side effects of KB408 include temporary increases in certain cell types in the lungs and temporary increases in the breathing rate after dosing. Since this is the first time that KB408 has been given to humans, it is possible that participants may have an immune reaction to the study drug. There is also a risk with genetic testing and a risk to confidentiality. Participants may not receive any personal benefit from being in this study. There is no guarantee that the Study Drug will help. The information that is collected from the study may help other people in the future.