View clinical trials related to Traumatic Brain Injury.
Filter by:Traumatic brain injury (TBI) is an acquired insult to the brain from an external mechanical force. It is considered a major cause of mortality and of long-term disabilities in young adults, especially considering high-income countries. The TBI can cause a wide range of temporary and/or permanent brain's dysfunctions that can involve physical, cognitive, behavioural and emotional functioning limiting everyday life and social activities and leading to a lowers quality of life. a sequential preparatory approach (SPA), performed in aquatic environment, based on increasing difficulty and following a specific sequence of preparatory exercises (from the simplest to the most complex) could be an effective complementary training during post-acute intensive rehabilitation in patients with severe traumatic brain injury (sTBI).
Brain Injury can be devastating for both patients and family members and can result in chronic difficulties in vocational, social, financial, as well as physical functioning. The occurrence of emotional and neurobehavioral challenges in individuals with brain injury is also common with research consistently showing links between these challenges and a person's overall rehabilitation outcome. In order to provide patients and caregivers greater support and teach adaptive coping strategies, the authors of this grant designed and studied a coping skills group specifically for brain injury survivors and their caregivers at the Rehabilitation Hospital of Indiana (RHI) called the Brain Injury Coping Skills group (BICS). BICS is a 12 session (one session per week), manualized, cognitive-behavioral treatment group designed to provide support, coping skills, and psychoeducation aimed to improve perceived self-efficacy (PSE) and emotional functioning.
The purpose of this study is to validate the Brain Injury Self-Efficacy Scale as a measure of self-efficacy in brain injury by comparing it with other measures of self-efficacy, the GSE, and PROMIS self-efficacy.
Minor traumatic brain injury (mTBI) (Glasgow Coma Scale 13 to 15) represent 70 to 90% of traumatic brain injury. Different disorders may occur after a traumatic minor brain injury (somatic, cognitive or affective) within 2 weeks. For 10 to 20% these symptoms are persistent and are part of post-concussion syndrome. Today a small amount of tools to predict this syndrome are available. Cerebral CT scan, a routine test for mTBI, isn't relevant to predict the post concussion syndrome. In order to improve understanding of the evolution toward this complication, it seems relevant to run a multimodal study. Multiparameter MRI combined to psychological and sociological evaluations cold provide a better global perception.
Traumatic brain injury (TBI) is a major public health issue, and intracranial hypertension in the acute phase remains a critical scientific issue. Many patients with acute closed TBI received conservative, non-surgical treatments at first, while 5%~19% of which develops intractable intracranial hypertension that requires emergent surgery. Therefore, it is of great clinical significance to identify patients who are at high risk of deterioration in the early stage. Previous studies have found that brain compliance is a contributive factor to intracranial pressure, and might serve in the development of intracranial hypertension after TBI. We made assumption that intracranial pressure has a negative relationship with brain compliance providing that the volume of hematoma remains constant. However, few studies have applied magnetic resonance elastography (MRE) in evaluating brain compliance in patients with TBI. Therefore, this study is designed to enroll patients with acute closed traumatic brain injury who are initially treated non-surgically. Magnetic resonance elastography (MRE) sequences are performed to non-invasively assess patients' brain compliances, in the hope of exploring the potential value of MRE biomarkers to predict the short-term outcome in patients with acute closed TBI who are initially receive non-surgical treatments.
Severe and refractory pain after acute injury is a known-risk factor for chronic opioid use disorder. In this study, the investigators will use Virtual Reality (VR) immersion as a non-pharmacological adjunct to treat pain associated with acute traumatic injuries, including traumatic brain injury. The investigators hypothesize that VR therapy will decrease pain and reduce opioid use in patients with acute traumatic injuries, including TBI.
This project will examine if computerized cognitive remediation will improve working memory and attention in 25 adults with a mild, moderate, or severe brain injury and compare their cognitive performance to the control group of 25 adults with a mild, moderate, or severe brain injury. The control group will train on computerized tasks of social awareness. Participants in both groups will be assessed prior to training and immediately post-training and one month-post training.
In this study patients who were admitted to our hospital with critical injuries were enrolled retrospectively from January 2012 to December 2015. Patients with an ISS>16 points, an AIS >3 in one body region and at least 2 different body regions affected were included. Possible prognostic factors were evaluated.
The purpose of this study was to identify the relationship between coagulopathy during the perioperative period (before the operation and on the first day after the operation) and the long-term survival of traumatic brain injury patients undergoing surgery, as well as to explore the predisposing risk factors that may cause perioperative coagulopathy.
Background: Severe traumatic brain injury (TBI) is a principal cause of post-injury hospitalization, disability, and death throughout the world. TBI is the leading cause of death and disability among young healthy people under 45 years of age and is predicted to be the most prevalent and costliest neurological condition in Canada through the year 2031. TBI is commonly classified into mild, moderate, and severe categories using the Glasgow Coma Scale (GCS), with "severe TBI" defined as a GCS score ≤ 8. Severe TBI is a clinical emergency, during which the trauma team works swiftly to provide the appropriate care. Outcome assessment after TBI is complex and is influenced by pre-injury and injury factors as well as the patient's response at various stages of recovery. The first 48 hrs in hospital, despite being the most resource-intensive period, unfortunately result in the highest mortality. These patients are on life support at the time of their hospital admission and adequate and reliable clinical examination is impossible. Thus, patients receive treatment despite lack of a clear understanding of their prognoses. Hypothesis: Admission Computed Tomographic Perfusion (CTP) can diagnose brain death reliably in severe TBI patients in early stage upon hospital admission, which is not recognised in the usual clinical practice due to inadequate reliable clinical examination. In a small prospective pilot study of 19 patients with severe TBI, admission CTP could predict early in hospital mortality with 75% sensitivity, 100% specificity, 100% positive predictive value (PPV) and 94% negative predictive value (NPV) and perfect inter-rater reliability (kappa=1). We propose ACT-TBI study to evaluate CTP as a triage tool to diagnose early mortality at the time of admission in patients with severe TBI. Primary Objective: To validate admission CTP features of brain death, relative to the clinical examination outcome, for characterizing early in-hospital mortality. Secondary objectives: To establish the safety and interrater reliability of admission CTP.