View clinical trials related to Nervous System Neoplasms.
Filter by:This phase I trial studies the side effects and best dose of prexasertib in treating pediatric patients with solid tumors that have come back after a period of time during which the tumor could not be detected or does not respond to treatment. Checkpoint kinase 1 inhibitor LY2606368 may stop the growth of tumor cells by blocking some of the enzymes needed for cell growth.
This clinical trial is the first clinical trial to study Durvalumab, a checkpoint inhibitor which stimulates the patient's own immune system to act against cancer cells in children and adolescents. This trial will assess the safety and tolerability of Durvalumab in children and adolescents and also study how Durvalumab is processed in their bodies.
This phase I trial studies the side effects and best dose of entinostat in treating pediatric patients with solid tumors that have come back or have not responded to treatment. Entinostat may block some of the enzymes needed for cell division and it may help to kill tumor cells.
This study is a single center, open-label, two-part study to assess image guided surgery of intramolecular imaging in nervous system tumors. Subjects with a diagnosis of a resectable nervous system tumor who are at risk of recurrence are included. The primary goal is to observe what tissues fluoresce in the OR, and then to identify if that tissue is cancerous/tumor or normal when the histopathology is performed.
Background: The number of people who get tumors of the brain or central nervous system (CNS) is lower than other cancers. But these tumors cause a higher rate of serious effects and even death. Researchers want to test existing samples of tissue from these tumors to learn more about them. This may lead to better treatment. Objective: To study stored samples of CNS tumors to learn more about the tumors and explore new ways to diagnose them. Eligibility: The study will use tissue samples already collected at NIH from people with brain or CNS tumors. Design: The participants will have given their consent in a previous study. Researchers will review the tissue samples and any data collected about them. Researchers will do lab tests and scans on the samples. All data will be kept secure.
This study will explore neurocognitive performance in pediatric brain tumor patients receiving proton beam radiation therapy (PBRT). The investigators goal is to gather baseline neurocognitive testing prior to the completion of the first week of radiation therapy along with follow-up testing 6-12 months after the completion of radiation and serial annual testing thereafter. With these data the investigators plan to evaluate the effects of PBRT on neurocognitive performance as it relates to patients' age at diagnosis, tumor location, and radiation dose. Modeling studies have demonstrated that PBRT could improve neurocognitive outcomes, but there is a paucity of prospectively-collected patient data. The investigators are uniquely positioned to address this important question given the busy pediatric central nervous system (CNS) tumor service, the delivery of proton therapy at the S. Lee Kling Proton Therapy Center at Barnes-Jewish Hospital, and the multi-disciplinary research team with extensive experience into the late effects of therapy as it relates to neurocognition.
The development of next generation sequencing (NGS) techniques, including whole genome (WGS), exome (WES) and RNA sequencing has revolutionized the ability of investigators to query the molecular mechanisms underlying tumor formation. Through the Pediatric Cancer Genome Project (PCGP), investigators at St. Jude Children's Research Hospital (SJCRH) have successfully used NGS approaches to evaluate more than 1,000 pediatric cancers ranging from hematologic malignancies to central nervous system (CNS) and non-CNS solid tumors. From these and related studies, it has become clear that genomic approaches can accurately classify tumors into distinct pathologic and prognostic subtypes and detect alterations in cellular pathways that may serve as novel therapeutic targets. Collectively, these studies suggest that by characterizing the genomic make-up of individual tumors, investigators will be able to develop personalized and potentially more effective cancer treatments and/or preventive measures. This protocol was initially enacted to usher NGS approaches into routine clinical care. During the initial phase of the G4K protocol, 310 participants were recruited and enrolled onto the study. Tumor and/or germline sequencing was completed on all 310 patients, with 253 somatic reports generated (representing 96% of the 263 participants for whom tumor tissue was available and analyzed) and 301 germline reports generated (100% of the 301 participants who agreed to the receipt of germline results). Analyses of the study data are ongoing with plans to prepare initial manuscripts within the next several months. Due to the successful initial execution of the G4K protocol, clinical genomic sequencing of tumor and germline samples is now offered as part of standard clinical care for pediatric oncology patients at St. Jude. The G4K protocol has now been revised. With the revision, the study team will record, store and analyze germline and tumor genomic information. Through the collection of these data, we will examine how germline mutations in 150 cancer predisposition genes influence clinical presentation, tumor histology, tumor genomic findings, response to therapy and long-term outcomes. The overall goals of this research are to further define the prevalence, spectrum and heritability of germline variants in these genes and to decipher how germline mutations influence the phenotypes of an expanding array of cancer predisposition syndromes. These studies allow us to provide more accurate genetic counseling and management strategies to future children harboring mutations in these genes. This remains a non-therapeutic study. Investigators anticipate a sample size of approximately 5000 patients who will be recruited over the next 7 years.
Phase I/II, open, prospective clinical trial, historically controlled. The objective is to evaluate the safety and, as a secondary measure, the efficacy of an experimental treatment based on a cellular therapy (vaccination with autologous dendritic cells pulsed with tumor lysate) in patients affected of metastatic or relapsed sarcomas or (Central Nervous System) CNS tumors.
Many types of cancer are primarily treated with surgery and patient survival is directly related to the extent to which the tumor is able to be removed. It is often difficult for surgeons to distinguish tumor tissue from normal tissue or to detect tumor cells that have spread from the original tumor site, resulting in incomplete removal of the tumor and reduced patient survival. In some sites, such as the brain, it is critical to avoid damage to normal tissue around the tumor to prevent adverse effects of surgery on function. The investigators hypothesize that BLZ-100 will improve surgical outcomes by allowing surgeons to visualize the edges of the tumor and small groups of cancer cells that have spread to other sites in real-time as they operate. This is a safety study to assess the safety of BLZ-100 in pediatric patients with central nervous system tumors.
Laser Interstitial Thermal Therapy (LITT) is a minimally invasive surgical technique that allows for biopsy and thermal ablation of brain tumors. Pediatric patients with brain tumors who are eligible and enroll in the trial will undergo LITT at the time of diagnosis or at the time of recurrence/progression rather than undergo an open craniotomy and tumor resection/biopsy. LITT will include a stereotactic biopsy followed by thermal ablation of the tumor. This study will monitor the safety and efficacy of LITT for the treatment of pediatric brain tumors.