Traumatic Brain Injury Clinical Trials

This study is a randomized Phase 2 trial to determine the feasibility of real-time electrocorticographic monitoring of spreading depolarizations (SD) to guide implementation of a tier-based protocol of intensive care therapies, aimed at SD suppression, for the management of patients who have undergone acute operative treatment of severe traumatic brain injury. Read Less

This study has two main goals: 1) to refine and enhance the R2R-TBI intervention; and 2) to examine the efficacy of the R2R-TBI intervention in a randomized control trial. To achieve the second goal, we will employ a between-groups randomized treatment design with repeated measures at baseline, one-month post-randomization, and at a six-month follow-up. The two conditions will be: a) usual medical care plus access to internet resources regarding pediatric brain injury (Internet Resources Comparison group, IRC), and b) usual medical care plus the R2R-TBI intervention (Road-to-Recovery group, R2R-TBI). Read Less

This project will adapt a currently deployed Clinical Decision Support (CDS) system to deliver a VTE prevention guideline for adult patients with traumatic brain injury (TBI). We believe this is an ideal PCOR use case given PCORI's continued effort to combat VTE in trauma and our experience previously implementing this guideline. The Our overall goal is to successfully scale, evaluate, and maintain an interoperable TBI CDS across 7 total institutions. Read Less

The purpose of this study is to examine the feasibility and preliminary efficacy of using transcutaneous auricular vagus nerve stimulation (tVNS) to enhance cognitive recovery in patients with mild-moderate traumatic brain injury (TBI). Read Less

Objective: In this study we will develop and apply imaging techniques to perform the first three-dimensional (3-D) measurements of brain biomechanics during mild head movement in healthy human subjects. Biomechanics is the application of mechanics, or the physical principles in action when force is applied to an object, to the anatomical structure and/or function of organisms. Such techniques will be invaluable for building computational models of brain biomechanics, understanding variability of brain biomechanics across individual characteristics, such as age and sex, and determining brain sub-structures at risk for damage when movement of the head is accelerated, such as during a traumatic event. Study Population: Measurements will be performed on 90 healthy men and women aged 18-65. Design: We will build upon the model pioneered by our collaborator, Dr. Philip Bayly. The model places a human subject in a magnetic resonance (MR) scanner with one of two head support units that allows a specific range of motion. Each head support is latched such that it can be released by the subject, and results in either a rotation of the head of approximately 30 degrees or a flexion-extension of the head of approximately 4 degrees. Although both supports are weighted so that the motion is repeatable if the subject is relaxed, the subject can easily counteract the weight. The resulting acceleration/deceleration is small (in the range of normal activities, such as turning one's head during swimming) and has been validated and used in other human investigations of brain biomechanics. The subject repeats the motion multiple times during the MR scan under their own volition and desired pace to measure motion of the head and brain. Outcome measures: This project is a pilot study evaluating the potential of extracting three-dimensional estimates of brain deformation, such as strain measurements, using MR imaging. A primary outcome of this project will be a fast MR acquisition sequence for measuring 3-D brain deformation. The sequence will be evaluated by applying the protocol to human subjects, followed by preliminary quantification of the reproducibility and stability of deformation measurements. Read Less

The goal of this clinical trial is to evaluate GetUp\&Go, a program for promoting increased physical activity in individuals at least 6 months post moderate-to-severe traumatic brain injury. GetUp\&Go is a remotely delivered 10-week program that includes one-on-one sessions with a therapist and a mobile health application (RehaBot). The main question is whether participants in the 10-week GetUp\&Go program increase their physical activity, and exhibit associated benefits in mental and physical health, relative to those who are put on a waitlist. * Question 1: Do participants who receive immediate treatment with GetUp\&Go show more increased physical activity, measured by accelerometer activity counts per day, and improve more on secondary outcomes, such as self-reported physical activity, emotional function, fatigue, sleep, pain, and health-related quality of life, compared to their baseline, relative to those who are put on a waitlist? * Question 2: Do participants who have continued access to the mobile health component of the intervention, RehaBot, show better maintenance of physical activity gains compared to those who no longer have access to RehaBot? * Question 3: Are individual participant characteristics associated with participants' response to the treatment program? Read Less

This is a human clinical study involving the isolation of autologous bone marrow derived stem cells (BMSC) and transfer to the vascular system and inferior 1/3 of the nasal passages in order to determine if such a treatment will provide improvement in neurologic function for patients with certain neurologic conditions. http://mdstemcells.com/nest/ Read Less

The goal of this observational study is to learn about changes in the brain of patients over the first 3 years following a traumatic brain injury (TBI). The main question it aims to answer are: - How TBI effect the rate of brain tissue loss compare to healthy brain Participants will give blood samples, complete MRI scans, and neuropsychological assessment measures. Researchers will compare results between healthy control group and TBI group to determine changes in injured brains. Read Less

The goal is to pilot test a highly accessible, web-based, pragmatic, scalable intervention to overcome ongoing problems with high stakes decision-making by surrogate decision-makers of patients in ICUs with severe acute brain injury (SABI), including those with moderate-severe traumatic brain injury, large hemispheric acute ischemic stroke and intracerebral hemorrhage. Read Less

This randomized trial aims to determine the effectiveness a virtual wellness intervention program in individuals with traumatic brain injury (TBI). Participants will be randomized at enrollment into two groups: immediate treatment (IT) and delayed treatment (DT) group. This study will also provide insights into the impact of these intervention's components in helping emotional, physical, and nutritional outcomes post-injury in the context of social determinants of health (SDOH). Read Less

The purpose of this research is to learn if different behavioral interventions can change walking behaviors over 12-weeks, in older adults who have previously suffered a non-penetrating mild or moderate TBI. Participants will provide information and be screened for eligibility via phone screening call (verification of age, confirmation that the participant is not currently on any medication that affects the central nervous system, and verification that the subject can participate in exercise, brief TBI history). Baseline testing will take place at the Center for Cognitive and Brain Health and Northeastern University Biomedical Imaging Center, for the baseline magnetic resonance imaging, in the interdisciplinary science and engineering complex on Northeastern University's campus. In person testing will take place over one session. The study period lasts 12 weeks, during which all participants will 1. Receive a weekly phone call with study staff and 2. Wear a wrist-worn Fit Bit tracker. A remote participation option is available for those who cannot travel to Northeastern University. Read Less

The intent of this study is to establish technical feasibility in a clinical population (PTSD, with or without mild TBI) of personalized TMS-fNIRS technology. Thereby demonstrating the utility of transcranial magnetic stimulation - functional near-infrared spectroscopy (TMS-fNIRS) technology as a direct measure of frontal brain activity, potentially replacing the indirect motor threshold procedure that may lead to improper dosing of TMS. Personalized TMS-fNIRS technology will guide therapy for depression, post-traumatic stress disorder (PTSD), and/or traumatic brain injury (TBI) Read Less