View clinical trials related to Traumatic Brain Injury.
Filter by:This study is conducted over 18 months. The main objective of this study is to test and compare the relevance and reliability of different tools for measuring the anosognosia. Secondary objectives are : - identify the relevant test who are able to evaluate more specially the cognitive processes involved in anosognosia - explore the links between the anosognosia manifestations and the psychological manifestations
Amantadine hydrochloride is one of the drugs given at rehabilitation programs to people who suffered Acquired Brain Injury in order to expedite recovery and improve functioning. A previous study examined the spatially asymmetric allocation of attention in patients with traumatic brain injury (TBI). Patients demonstrated significantly worse performance with leftward than with rightward cross-hemi field shifts of attention. This is reminiscence of neglect patients. This difference was significantly reduced during and following treatment. Our objective is to investigate whether Amantadine Hydrochloride is effective in improving allocation of spatial attention and improving function in people with Traumatic Brain Injury.
Traumatic Brain Injury (TBI) is the most common cause of death and long-term disability in children. Much of the long-term disability stems from neurocognitive impairments that are not greatly helped by current cognitive training and pharmacological treatments for TBI related cognitive impairments. This study tests the hypothesis that a drug, D-cycloserine (DCS), will significantly enhance the effect of cognitive training in correcting cognitive impairments in children with moderate/severe TBIs. In order to do so, study subjects who fit inclusion criteria, including those with moderate to severe TBI who show persistent working memory weaknesses based on a screening, will be recruited. They will have three visits to UCLA. During the first visit, subjects will undergo an MRI protocol before and after taking a pill (drug or placebo, blinded). They will also participate in a number of paper and pencil cognitive tests. Then subjects will be enrolled in a 6 week computerized cognitive training program (CogMed). They will also be prescribed a drug/placebo pill (depending on which group they are randomized into), which they'll have to take at regular intervals during the 6 weeks. They will have weekly check in phone calls or visits by a coach trained in the program to make sure they are following the study protocol accurately, to have their questions answered, and for motivation. At the end of the training period, subjects will return to UCLA to again complete the MRI protocol and cognitive testing. After three months of enrollment, they will have a final visit to UCLA, including only cognitive testing. A total of 30 subjects will be entered into the study.
This research study evaluates the effectiveness of a low-cost Virtual Reality-based (VR) training system in providing a customized balance treatment in a skilled clinical setting. Participants will be assigned to one of three treatment groups.
Background: People with a traumatic brain injury (TBI) can have trouble making the best possible decisions. Researchers want to learn more about the parts of the brain that control decision making. They also want to know how these are different between people. This may help predict how people make decisions after TBI. Objective: To learn more about which parts of the brain are involved in making decisions and how decisions may be hurt after TBI. Eligibility: Adults age 18 to 60. Design: Participants will be screened with medical history and physical exam. They will also take memory, attention, concentration, and thinking tests. Participants will do up to 2 experiments. For Experiment 1, participants may have 3 scans: PET: a chemical is injected through a thin tube into an arm vein. Participants lie on a bed that slides in and out of the scanner. MRI: a strong magnetic field and radio waves take pictures of the brain. Participants lie on a table that slides in and out of a metal cylinder. It makes loud knocking noises. Participants will get earplugs. They might be asked to do a task. A coil will be placed over the head. MEG: a cone with magnetic field detectors is lowered onto participants head. After the scans, participants will perform a decision-making task. For Experiment 2, participants will perform a decision-making task before and after receiving transcranial direct current stimulation (tDCS). tDCS: wet electrode sponges are placed over participants' scalp and forehead. A current passes between the electrodes. It stimulating the brain. Participants will return 24-48 hours later to repeat the decision-making task.
We are extending the researches of Taiwan neurosurgery traumatic brain injury (TBI) database which is led by Professor WT Chiu in Taipei Medical University and will recruit mild TBI (mTBI) participants who have ever been registered in the database. This database has been established for over 15 years and contains the information of over 150000 patients. It is one of the largest TBI database in the world. TBI usually results from traffic accidents, falls or violence events. Most of the victims are young people and the victims suffer from life-threatening and mental-physical deficits. Mild TBI (mTBI) usually was neglected before because its symptoms, signs are mild and mTBI patients usually were not obtained enough initial treatment. Therefore, mTBI might result in long-term cognitive and affective impairments, such as depression, indifference, anxiety, memory impairment, loss of attention and executive function. These late effects not only decrease the life quality of patients and their family but also increase the social and medical burden. Recent epidemiology studies have pointed out that TBI would increase the risk for dementia, especially Alzheimer disease (AD) by 2-4 times. However, the association between TBI severity, number of repeats, genetic factors and onset of AD remains further investigation. Amyloid-β (Aβ) plaques and neurofibrillary tangles are the pathological hallmarks for AD. Accumulation of Aβ is considered to be the first step of pathophysilogy of AD. Compelling researches have supported TBI accelerates the formation and accumulation of Aβ. These findings could link TBI with AD but the previous researches had limitations. There was lack of mTBI pathology data so the impacts of mTBI on Aβ accumulation were still obscure. By amyloid-PET, we could study the effects of mTBI on the accumulation of Aβ and this tool could be helpful for understanding the real impacts and pathophysiological mechanisms of mTBI on AD.
Objective/Hypothesis: An eight-week course of forty low-pressure Hyperbaric Oxygen Treatment's (HBOT's) can significantly improve symptoms and cognitive function in subjects with the persistent-post concussion syndrome (PPCS) of mild traumatic brain injury (mTBI).
To explore the cerebral protective effect of midazolam in patients with traumatic brain injury, we will collect blood samples from patients treated with or without midazolam when the patient is admitted to ICU, 24 h, 48 h and 72 h after the admission before the use of midazolam for patients in group N1, and before the patient is treated with midazolam, 24 h， 48 h, 72 h after the use of midazolam for patients in group N2. Parameters of cerebral metabolism and inflammatory response will be obtained from the blood samples or the cerebrospinal fluid. With the aforementioned parameters, the relationship between clinical outcome and cerebral metabolism and inflammatory response will be detected with statistical method.
Management of intracranial hypertension (ICH) in patients with severe traumatic brain injury (sTBI) is crucial to their survival and optimal recovery. The evidence-based Guidelines for the Management of Severe Traumatic Brain Injury, 3rd Edition recommends use of intracranial pressure (ICP) monitors to assess ICH and guide intervention. Unfortunately, only a small percentage of the world has the resources and capability to routinely monitor ICP. The objective of this proposal is to create and test guidelines for the treatment of severe TBI in the absence of ICP monitoring.
1. Background: Preliminary studies have suggested that valproate acid (VPA) may promote neuron survival, inhibit apoptosis, decrease the neuron function deficit in cerebral ischemia, and promote the brain functional recovery after traumatic brain injury (TBI). Besides, in the guide of prevention and treatment of epilepsy in 2007, VPA was one of the antiepileptic drugs which were suggested to prevent early epilepsy after TBI (less than 7 days). 2. Objectives: Our main objective was to evaluate whether VPA could protect brain and improve recovery of brain function after severe TBI. The secondary objective was to explore whether VPA could prevent late epilepsy after severe TBI (more than 7 days). 3. Methods: We would enroll 160 patients who were in a vegetative or minimally conscious state 4 to 16 weeks after TBI and who were receiving inpatient rehabilitation. Patients were randomly assigned to receive VPA or placebo for 4 weeks and were followed for 2 weeks after the treatment was discontinued. The rate of functional recovery on the Disability Rating Scale (DRS; range, 0 to 29, with higher scores indicating greater disability) was compared over the 4 weeks of treatment (primary outcome) and during the 2-week washout period with the use of mixed-effects regression models.