View clinical trials related to Traumatic Brain Injury.
Filter by:Objectives: Ketamine is an effective, short-acting anesthetic drug, which does not decrease blood pressure. It is widely stated that Ketamine increases intracranial pressure (ICP), which prevents its use in many emergency situations, specifically in patients with traumatic brain injury (TBI) and with increased ICP. Based on previous clinical experience, we hypothesized that Ketamine decreases – rather than increases – ICP. Methods: Prospective, controlled, clinical trial. Children with ICP monitoring will receive a single Ketamine dose (1-1.5 mg/kg) either for increased ICP and/or before a potentially distressing activity. Hemodynamic variables, ICP and cerebral perfusion pressure (CPP) will be recorded 1 minute before and every minute for 10 minutes following Ketamine administration (Before/after design).
The aim of this study is to determine whether passive gait training increases arousal, demonstrated as changes in EEG (electroencephalogram) activity. Hypotheses: 1) Passive gait training increases EEG-frequency in patients with impaired consciousness due to severe traumatic brain injury. 2) Passive gait training increases conductivity speed of the cognitive P300-component of ERP in patients with impaired consciousness due to severe traumatic brain injury.
The main goal of the present study is to challenge the hypothesis that blood- brain barrier disruption following brain injury increases the risk for long-term disability, development of brain dysfunction, epileptic seizures and neuroanatomical alterations.
This study will evaluate the effectiveness of an Internet-based psychosocial treatment in improving problem-solving, communication skills, stress management strategies, and coping among children who have had a traumatic brain injury and their families.
The purpose of this study is to see if the treatment of severely brain injured patients with darbepoetin (a long acting form of erythropoietin) will be safe, and will reduce brain damage by decreasing harmful levels of chemicals in the brain.
Severe traumatic brain injury is associated with an increased production of free radicals causing brain damage. First line treatment of these patients aims to maintain cerebral perfusion and includes deep anaesthesia. Propofol has recently shown anti oxidant properties that need to be confirmed when used in these patients. The main objective of this study is to evaluate the effect of propofol compared to midazolam on intra cerebral oxidative stress following severe traumatic brain injury.
Traumatic Brain Injury (TBI) is a neurologic disorder cuased by physical trauma to the brain. Neuroendocrine abnormalities in these patients have been reported, including central hypogonadism within hours of the insult and eventual recovery of the hypothalamic-pituitary-gonadal axis with recovery of cognitive function to baseline. This pilot study will measure hormonal level of neuroendocine function at the time of TBI and various time points during recovery.
It is anticipated that the use of tissue oxygen monitoring to measure brain tissue oxygen and deltoid muscle oxygen will provide more precise information about focal brain ischemia and systemic hypoperfusion than current techniques and measures such as blood pressure, heart rate and intracranial pressure. Understanding the relationship between tissue oxygen tension collected from the brain and deltoid muscle in critically injured patients could lead to a broader understanding of the important metabolic and cellular events that occur following severe injury and the changes induced by therapeutic interventions. Furthermore, the use of interventions designed to improve tissue hypoxia, as measured by low brain or muscle tissue oxygen, may improve mortality or neurological recovery after systemic trauma or head trauma compared to current approaches that do not involve tissue metabolic monitoring.
The purpose of this study is to determine the effect of early administration of recombinant human erythropoietin on long-term neurological outcome after severe traumatic brain injury.
The goal of this project is to develop a low-cost, user-friendly, portable telerehabilitation system for physical therapy of the upper limb after stroke or traumatic brain injury. The system is based on the use of a commercially available force feedback joystick and will work with an ordinary home PC and a standard high-speed internet connection. Using the joystick, the patient will perform exercises designed to aid in recovering motor function of the hand and arm. The joystick will be programmed to either assist or resist the patient's movements. The system will include sophisticated analysis of patient status and progress to provide the therapist and physician with detailed information. In the first phase of the study, we will develop the system in cooperation with the physical therapy staff and other rehabilitation specialists. The investigators will examine the usability, comfort, safety and therapeutic benefit of the system. In the second phase of the study, the investigators will employ the system in patients' homes, using the internet to connect to rehabilitation specialists in the clinic. The study hypothesis is that it is possible to adapt commercially available, low cost gaming equipment such as force feedback joysticks to provide therapy for patients in their own homes, and that patients will be able to work with this system and will find it enjoyable and helpful for recovering motor function.