View clinical trials related to Brain Injuries.
Filter by:Traumatic brain injury (TBI) is an important global health concern. Recently, advances in neurocritical care have led to an increase in the number of recovering TBI patients, and concomittantly in the incidence of complications of TBI. One of the most important sequalae of TBI is cognitive deficit, for which multimodal rehabilitation approach is indicated. Transcranial direct current stimulation (tDCS) is a promising treatment strategy for post-TBI cognitive deficits. However, a standardized tailored tDCS protocol is yet to be established for TBI patients. Therefore, this trial aims to 1) the efficacy of tDCS on post-TBI cognitive deficits, and 2) and optimized protocol of tDCS on post-TBI cognitive deficits via a three-arm double-blind, randomized controlled trial.
The purpose of the present study is to follow unpaid caregivers of ABI survivors in Nova Scotia over time to learn more about their experiences. The study is funded by the Government of Nova Scotia (i.e. Department of Health and Wellness). The present longitudinal cohort study will help increase knowledge about ABI caregivers at a provincial level. Findings will also be used in developing future interventions to help caregivers in this population. The goals of the research study are: 1. To understand the natural experiences of unpaid caregivers over time. More specifically, the investigators hope to learn about the experiences of unpaid caregivers of acquired brain injury survivors in Nova Scotia. 2. To examine the connection between study demographic variables (e.g. the amount of time spent caregiving in hours per week), and psychological outcome variables (e.g. caregiver burden). 3. To learn about the relationship between psychological outcome variables (e.g. psychological distress and savouring). 4. To provide a platform for future studies using the Trials within Cohort (TwiC) study design.
Hyponatremia (HN) is the most common electrolytic disorder in the traumatic brain injury (TBI) population, found in 17 to 51% of patients according to the series. Two etiologies predominate in the literature, the Syndrome of Inappropriate Anti Diuretic Hormone (SIADH) and the Cerebral Salt Waste Syndrome (CSW), but none has been precisely described in terms of epidemiology, risk factors or severity. Moreover, SIADH and CSH were often confused in previous works. The main goal of our study is to assess retrospectively prevalence, severity, time to onset, length, risk factors of HN in a large population of TBI patients, as well as treatment modalities and prognosis. A specific distinction was performed between SIADH or CSW.
Establishment of effective, efficient, and evidence-based interventions in rehabilitation of working memory (WM) deficits after acquired brain injury (ABI) is sorely needed. Despite robust evidence for the usefulness of clinical hypnosis in a wide range of clinical conditions, and improved understanding of mechanisms underlying it ́s effects, the potential of clinical hypnosis in cognitive rehabilitation is virtually unexplored. The current study seeks to replicate resent intriguing findings where large effects of hypnotic suggestion were seen on WM capacity following ABI, and further, explore underlying mechanisms of change.
The main objective is to evaluate the feasibility and interest of setting up a protocol for the systematic measurement of the S100B protein in patients with mild traumatic brain injury admitted to the emergency room of Douai hospital in order to reduce the number of unnecessary brain scans. The main evaluation criterion is the percentage of patients admitted to the emergency department of Douai hospital for mild traumatic brain injury, whose protocol for the systematic measurement of the S100B protein would make it possible to avoid the realization of a brain scans for patients with a protein assay S100B ≤ 0.10 µg/L, carried out within 3h of the onset of MCT. The systematic dosage of the S100B protein in the context of mild traumatic brain injury still does not appear in the recommendations for good practice in 2021. This study will contribute to the reflection on the use of the S100B protein in the development of new recommendations for good practice of mild traumatic brain injury support.
In patients with severe brain injury, maintenance and control of blood pressure is at the very first point in the management strategy, whether in anesthesia or in intensive care. In order to restore cerebral perfusion pressure (CPP) to appropriate levels (60-70 mmHg) while ensuring optimal perfusion of other vital organs, intravenous administration of vasodilator, inodilator or vasoconstrictor vasoactive agents is commonly used. These vasoactive agents, widely used to correct hypotension or hypertension, have their own effects on the load conditions of the left ventricle and the tone of the arterial tree, but also have effects on the microcirculation. The microcirculatory status of a tissue cannot be reliably predicted by considering only the macrocirculatory parameters usually measured. Therefore, in situations where organ perfusion is inadequate or compromised, patient management that includes the integration of the impact of vasoactive agents on the microcirculation seems essential for comprehensive hemodynamic treatment. The non-invasive study of microcirculatory perfusion and its interactions with the macrocirculatory network, using a minimally invasive method such as videomicroscopy, should allow a better use of the treatments used. For cerebral patients, routine management already includes very complete monitoring of all cardiopulmonary and cerebral systemic parameters. It is therefore imperative to study and propose new minimally invasive modalities for monitoring the microcirculation in order to define new therapeutic targets that take into account the microcirculatory compartment.
The purpose of this study was to observe the relationship between the changes of circulating extracellular vesicles and disease development and outcome in patients with traumatic brain injury, and to find early serum markers and potential intervention targets for disease monitoring in patients with traumatic brain injury. In addition, explore the source of extracellular vesicles as much as possible to prepare for subsequent basic experiments.
Extreme prematurity is constantly increasing according to the World Health Organization. However, methods to train premature infants at risk of disability is sorely lacking. The goal of this project is to overcome this problem. In our previous studies, we discovered that promoting the crawling of typical newborns on a mini skateboard, the Crawliskate (a new tool that we designed and patented EP2974624A1), is an excellent way to stimulate infants' motor and locomotor development. This method is a promising way to provide early interventions in infants at heightened risk for developmental delay, such as premature infants. The specific objective of this study is to determine if early training in crawling on this mini skateboard will accelerate motor (particularly locomotor) and/or neuropsychological development in very premature infants identified as median risk for developmental delay. Methodology: We will study and follow three groups of very premature infants born between 24 and 32 weeks of gestational age without major brain lesions. These infants will be recruited before their hospital discharge at the NICU. After their discharge from the hospital, one group of infants will be trained at home by physiotherapists to crawl on the Crawliskate every day for 2 months (Crawli group), one group of infants will be trained at home by physiotherapists positioned prone on a mattress (Mattress group) and one group of infants will receive regular medical care (Control group). All infants will be tested for: 1) their crawling proficiency on the Crawliskate at term-equivalent age (just before training for the trained groups) and at 2 months corrected age (CA, i.e., age determined from the date on which they should have been born), 2) their motor proficiency between 2 and 24 months CA (2D and 3D recording of head control, sitting, crawling, stepping, walking) and 3) their neurodevelopmental, motor and neuropsychological development between 0 and 24 months CA : BSID III edition, ASQ-3, Amiel-Tison's Neurological Assessment, Prechtl Assessment of general movements. One more ASQ-3 questionnaire will be provided at five years. Expected results: Our first research hypothesis is that premature infants trained daily to crawl (for two months after discharge from the NICU) will acquire proficient crawling patterns and develop earlier and more effective motor and neuropsychological development than premature infants who receive mattress training or no training.
Sequences of muscle tendon vibrations allow to reproduce the sensory feedback during movement like locomotion and kinaesthesia. It is known that such a treatment promotes motor recovery after stroke assuming that it enhances neuroplasticity. The aim of the research is to study the activity in cerebrospinal circuitry to evaluate the neuroplastic changes during and after instrumented proprioceptive rehabilitation relying on sequences of muscle vibration in subacute stroke stages.
The purpose of this study is to assess a balance training program to see if it can be helpful to avoid falls in people who have had traumatic brain injuries (TBIs). The study will include 3 groups: TBI Intervention group , TBI Control Group, and healthy control group. TBI Intervention group - These individuals will participate in 16 anticipatory postural adjustments (APA) and compensatory postural adjustments (CPA) training sessions using the Neurocom Balance Platform. Each session will last for 1 hour. During the APA portion, participants will be provided with a visual cue on the front screen in the form of a countdown timer showing the remaining seconds to the onset of the upcoming perturbation. This information will allow an opportunity for the participant to adjust their posture to handle the upcoming perturbation in the best possible way and also train them to anticipate upcoming disturbances and execute corrective motor outputs. In CPA, after a 5 second pause, the platform will oscillate at 1 Hz, with a constant amplitude, in the anterior-posterior direction for 50 seconds, followed by an additional 5 second quiet period. The participant will wear a safety harness at all times and a spotter will be present at all times. TBI Control Group- They do not receive any intervention. healthy control group- They do not receive any intervention. All three groups will participate in two data collection sessions: Baseline and follow-up. At baseline and follow-up, we will collect functional, clinical, biomechanical, and physiological metrics. During training and data collection, a spotter will be present at all times to prevent falls and participants will be allowed as much rest as needed by them..