Active clinical trials for "Brain Neoplasms"

To test a new investigational virtual exercise program for adolescents and young adults (AYAs) with brain tumors who plan to receive cranial radiotherapy

The objective of this study is to estimate the feasibility and acceptability of cognitive training in the virtual reality setting with children undergoing radiotherapy for brain tumors. To achieve this goal, the investigators plan to study children undergoing radiotherapy for brain tumors randomly assigned to cognitive training administered via an iPad or virtual reality. Both groups will also participate in cognitive testing and exams using functional near infrared spectroscopy (fNIRS) pre- and post-intervention. The questions to be investigated are: Will cognitive training via virtual reality be feasible and acceptable for children undergoing radiotherapy for brain tumors as indicated by participation rates, adherence and frequency of side effects? Will cognitive training via virtual reality provide neurocognitive benefits? Will there be predictable changes in brain activity as measured by neuroimaging? Findings from this study will be used to develop a larger, definitive trial with direct potential to improve cognitive outcomes for children treated for cancer using a safe and effective alternative to desktop- or laptop-based computerized cognitive interventions with great promise for improving quality of life.

This pilot study will be a single center, randomized controlled study of 24 participants with diagnosed BM (various primary disease sites) comparing the effect of a ketogenic (n=12) and AICR (n=12) diet. Potential participants will be identified via medical record reviews and chart reviews. Eligibility of patients will be assessed via medical record review. Randomization will be balanced by blocks of random sizes but no stratification due to the small sample size. Both groups will undergo a 16-week diet intervention where research dietitians will provide educations, recipes and grocery lists on the participants assigned diet. Each group will receive 4-7 days worth of food prior to testing days to both aid in transitioning to each dietary arm and to ensure that the metabolic needs for each arm are met. In an effort to maintain a patient centric focus and monitor changes in quality of life (QOL) all patients will complete psychosocial and behavioral inventories. These inventories aim to capture a holistic view on the proposed nutritional intervention during treatment. Primary outcomes will be determined at baseline, 8 weeks, and 16 weeks while patient-centric outcomes will be assessed every four weeks. Participants will have counseling by the attending physician for additional applicable medications for any treatment related side effects or toxicities. The intervention groups will undergo their randomized dietary regimen for 16 weeks.

Standard Magnetic Resonance Imaging (MRI) is based on the excitation of hydrogen nuclei that are presents in water molecules, which abundance in human body allows for obtention of superior contrast. However, assessing the presence of other molecules than water in tissues is also of great clinical interest to probe metabolites related to physiological body function and pathological conditions. Chemical exchange saturation transfer (CEST) allow to overcome some limitations of proton magnetic resonance spectroscopy (1H-MRS) by exploiting chemical properties of the targeted molecule through a continuous process of re-saturation and exchange, and thus detecting it with increased sensitivity, from two orders of magnitude. Moreover, CEST technique is based on imaging sequences and can therefore benefit from well-known fast acquisition strategies, as well as improved spatial resolution.

The purpose of this study is to evaluate the safety and efficacy of targeted blood brain barrier disruption with Exablate Model 4000 Type2.0/2.1 in combination with Doxorubicin therapy for the treatment of DIPG in pediatric patients

This phase II trial studies the effect of neuropsychological evaluation and intervention in maintaining quality of life after radiation therapy in patients with cancer that has spread to the brain (metastases). Quality of life refers to the overall enjoyment of life. It holds varying meanings for different people and may evolve over time. For some individuals it implies autonomy, empowerment, capability, and choice; for others, security, social integration, or freedom from stress or illness. Neuropsychological evaluation is used to examine the cognitive (thinking) consequences of brain damage, brain disease, and severe mental illness. Deterioration of both quality of life and cognitive function is common when receiving radiation to the brain. Neuropsychological evaluation with a certified neuropsychologist may improve quality of life or cognitive function after radiation therapy.

We aim to conduct a feasibility study to determine the feasibility and suitability of implementing a musical training program for children surviving brain tumours. This study will demonstrate the feasibility of implementing a musical training program in improving the neurocognitive functioning of surviving brain tumours.

Primary and secondary brain tumors are a constant challenge for the medicine. Tissue sensitivity to ionizing radiation differs and depends on numerous factors and the same dose of radiation may produce different effects in particular structures of the CNS. It can also affect the surrounding healthy tissues and lead to adverse effects like the cognitive or physical function impairment. One of brain structures most sensitive to ionizing radiation is the limbic system, especially the hippocampus, because it is here that the postnatal neurogenesis takes place via neural stem cells, which are a self-renewing population of precursor cells. There have been no studies that would thoroughly examine the impact of different CNS radiation therapy techniques on the cognitive function, potential neuroplasticity markers or blood-brain barrier damage in brain tumor patients with a concomitant use of neurocognitive combination therapies or physical exercise, and their impact on the CNS function. The aim of the study is to assess the impact of selected RT techniques: IMRT, WBRT, and CyberKnife (SRS) on the processes regulating cognitive and physical function in patients with primary (Group III and IV, WHO, 2016) and metastatic CNS tumors. The secondary objective is the analysis of the effect of selected forms of neurorehabilitation on the parameters studied. The study will be a prospective clinical trial conducted in 150 patients. Patient evaluation will be carried out before RT, after RT, during a follow-up visit-3 months after RT, and finally after 6 months. The methods will be used: analysis of the blood-brain barrier permeability markers including exact connection proteins, markers confirming neuroplasticity of the brain, cerebral secretory activity, and onco- and anti-neuronal antibody activity, brain structure analysis (MRI) and volume testing of selected brain structures, and assessment of cognitive and physical function of the patients. The study will be a part of the search trend aiming to explain the mechanism of the formation of cognitive-behavioral disorders in humans based on the most fundamental principles governing information processing in CNS, and the impact of neoplasia and ionizing radiation on selected brain structures and functions. The results of the study might become a starting point for the formulation of new guidelines on the level of physical activity or cognitive exercise in patients treated with CNS radiation therapy.

This goal of this study is to test an information and support intervention for patients with malignant (or "high-grade") brain tumors. This study was developed to help patients cope after a brain tumor diagnosis. The main question this study aims to answer is whether this intervention (which includes access to an information guide and one-on-one coaching sessions) is feasible (i.e., possible to carry out) and acceptable (i.e., considered helpful) to patients. Participants will be asked to take part in the coaching sessions, use the guide as desired, and complete a small group of short surveys at three different points in time; some participants will be asked to share feedback via exit interviews.

The research aims to establish a big database of multiple kinds of brain tissues and prove the relevance of human brain tissue models and hiPSCs-derived organoid models.