View clinical trials related to Brain Injuries.
Filter by:Development of objective, reliable, and convenient assessment methods of disorders of consciousness is crucial. We aim to conduct multicenter prospective observational study and non-invasively collect EEG from patients with traumatic coma to analyze the sequential characteristics of EEG power spectrum, and explore their prognostic value for consciousness recovery.
The goal of this or clinical trial is to explore efficacy of stellate ganglion block on dysphagia and activities of daily living in Traumatic Brain Injury Patients. The main question it aims to answer are: Can stellate ganglion block improve the dysphagia and activities of daily living in Traumatic Brain Injury Patients. Traumatic Brain Injury Patients will be divided into the the control group and observation group evenly. All the patients were provided with routine therapy, while the patients in the observation group were given stellate ganglion block. The swallowing function, and activities of daily living of the two groups of patients before and after treatment were evaluated.
Emotional difficulties such as anxiety and depression are common after experiencing a brain injury. The compassion focused therapy (or CFT) model proposes the importance of developing skills in being able to self-soothe and be self-compassionate to counteract feelings of distress. Several studies have shown that therapy groups using CFT techniques are helpful, but there has only been one previous study of a CFT group with people with acquired brain injury. This study aims to evaluate a new CFT group for people who have had a brain injury and are currently receiving inpatient neuro-rehabilitation. The group will have six weekly sessions with 4-6 people in each group. The group will be run at the inpatient neuro-rehabilitation unit. As this is a new group that has not been run before, it will be a small study to see whether the group is feasible and acceptable to attendees. The study will evaluate whether the group can be run as planned and how many people attend. The investigators will also interview people who attended the group to find out what they thought of the group. The study also aims to use four questionnaires measuring emotional distress, well-being, self-compassion and quality of life to measure the effect of the group. Group attendees questionnaire scores from before and after the group will be compared to see if there has been any change due to attending the group. This project is being completed as part of a Doctorate in Clinical Psychology at King's College London, and will be recruiting patients from an inpatient neurorehabilitation setting.
Intensive care management of patient with severe traumatic brain injury (TBI) includes deep and prolonged sedation with intravenous hypnotics (propofol, midazolam, ketamine) in combination with opioids to prevent and/or treat episodes of intracranial hypertension. However, some patients may develop tachyphylaxis with a gradual increase of administered intravenous hypnotics and opioids to maintain the same level of sedation. This situation leads to a failure in controlling intracranial pressure (ICP) and/or to the risk of adverse effects due to high-dose sedatives: haemodynamic instability, prolonged mechanical ventilation, neuromyopathy, delirium, withdrawal syndrome. Halogenated agents (Isoflurane, Sevoflurane) are a class of hypnotics routinely used in the operating room. However, doses used in surgical patients (> 1 Minimal Alveolar Concentration, MAC) are not suitable in neuro-intensive care unit (ICU) patients at risk of intracranial hypertension because of the cerebral vasodilator effects of halogenated agents at this dosage, hence the risk of high ICP and compromised cerebral perfusion pressure. The use of halogenated agents has been recently possible in the ICU through dedicated medical devices (Sedaconda ACD, Mirus). Recommended dosage are lower in the ICU, i.e. 0.3-0.7 MAC, because of their association with intravenous hypnotics and the absence of surgical stimuli. Several clinical studies in general ICUs showed improved sedation quality, reduced duration of mechanical ventilation, faster arousal and shorter extubation time, and lower costs in halogenated group compared with control group receiving midazolam or propofol. At low doses, the effects on ICP and intracerebral haemodynamics of halogenated agents are minor according to the available literature. In addition, beneficial effects were found on cerebral ischaemic volume in animal models treated with halogenated agents. However, there is a need to explore the benefit-risk ratio of the use of halogenated agents in the severe TBI population. The investigator hypothesise that 0.7 MAC Isoflurane can be administered in this population without deleterious effect on ICP.
The goal of this or clinical trial is to explore efficacy of stellate ganglion block on dysphagia and activities of daily living in Traumatic Brain Injury Patients. The main question it aims to answer are: Can stellate ganglion block improve the dysphagia and activities of daily living in Traumatic Brain Injury Patients. Traumatic Brain Injury Patients will be divided into the the control group and observation group evenly. All the patients were provided with routine therapy, while the patients in the observation group were given stellate ganglion block. The swallowing function, and activities of daily living of the two groups of patients before and after treatment were evaluated.
The purpose of this research is to understand and treat Traumatic Brain Injury (TBI) associated photophobia (light sensitivity) and its impact on visual function.
A prospective, multicenter, randomized controlled, open-label, blinded endpoint evaluation study.
Impaired respiratory function may occur after brain injury, and will progress to restricted respiratory dysfunction without early intervention. At present, there is a lack of effective treatment options for respiratory dysfunction. Repetitive Transcranial Magnetic Stimulation(rTMS) is a non-invasive, painless and non-invasive neuroregulatory technique. In healthy people, rTMS applied to the respiratory motor cortex induces a contralateral respiratory muscle response. However, whether rTMS can improve respiratory function in patients with brain injury remains unclear. gut microbiota can affect muscle function and mass, and animal experiments have shown that probiotics can increase skeletal muscle mass and grip strength in mice. On the other hand, studies have found that rTMS can improve the nutritional status of patients with vegetative state by regulating the structure of gut microbiota. However, it remains unclear whether rTMS can improve respiratory muscle function in patients with brain injury by regulating gut microbiota. Therefore, the investigators intend to apply rTMS to the respiratory motor cortex to observe whether rTMS can improve respiratory function and reduce the incidence of pneumonia in patients with brain injury, and to observe the role of gut microbiota in this process.
The goal of this clinical trial is to test the safety of the drug Angiotensin (1-7) and learn whether it works well as a treatment in people who have suffered a moderate to severe traumatic brain injury (TBI). The main questions this trial aims to answer are: - Is Angiotensin (1-7) safe? - Does Angiotensin (1-7) improve mental functioning and reduce physical signs of brain damage in people who have suffered a moderate to severe TBI? Participants will: - Complete 21 days of study treatment consisting of a once-daily injection. - Provide blood samples. - Undergo two magnetic resonance imaging (MRI) scans of the brain. - Complete specific tasks and questionnaires that allow researchers to evaluate the participant's brain and psychological functioning. Researchers will compare three groups: two groups that receive different doses of Angiotensin (1-7) and one group that receives a look-alike treatment with no active drug. This will allow researchers to see if the drug has any negative effects and whether it improves mental functioning and physical signs of brain damage after a TBI.
The purpose of this study is to evaluate the safety and feasibility of using a portable neuroimaging device called functional near-infrared spectroscopy (fNIRS) to successfully analyze fNIRS data in individuals with chronic TBI during treadmill training augmented with VR.