View clinical trials related to Brain Cancer.
Filter by:The purpose of this study is to try to determine the maximum safe dose of dexanabinol that can be administered to people with brain cancer. Other purposes of this study are to: - find out what effects (good and bad) dexanabinol has; - see how much drug gets into the body by collecting blood and cerebrospinal fluid for use in pharmacokinetic (PK) studies; - learn more about how dexanabinol might affect the growth of cancer cells; - look at biomarkers (biochemical features that can be used to measure the progress of disease or the effects of a drug).
To look for patterns of polymorphisms in DNA repair in both germline and tumor cells samples.
This study will examine if MRI perfusion and PET/CT can tell growing tumor and radiation injury apart. MRI perfusion looks at the blood vessels in the tumor. PET/CT looks if the tumor cells are actively growing. The investigators will do these two tests and see which one is better. Patients will remain on study until the completion of either the MRI perfusion or PET/CT that are within 12 weeks of each other. After one of these scans, the patient will have no active interventions and will be off study. Optional: Restriction Spectrum Imaging (RSI) Sequence RSI sequence is an advanced way of looking at your brain. The scan allows doctors to see how water is moving within brain tumors or within brain cells. The extra sequence takes additional 4-5 minutes in the scanner. The RSI sequence is optional. The patient will only be asked to participate if the doctor believes that it will be helpful. Off study: Patients will remain on study until the completion of either the MRI perfusion or PET/CT that are within 12 weeks of each other. After one of these scans, the patient will have no active interventions and will be off study. Patients will obtain a standard of care brain MRI scan about every 2-3 months. These MRI scans will be used to track disease progression.
Many patients with brain tumors require surgery. Some patients have brain tumors near important parts of the brain. These brain areas have roles in language or motor function. Avoiding these motor and language areas helps to prevent neurological deficits. The investigators are studying the parts of the brain involved in motor and language. Patients usually get functional MRI (fMRI) or resting-state fMRI (rs-fMRI) for gray matter mapping and diffusion tensor imaging (DTI) or diffusion spectrum imaging (DSI) for white matter mapping. These special MRI sequences are used to plan surgery. Patients are scheduled to have imaging to help plan for possible surgery. Some patients may require stimulation during surgery to motor and language areas. In patients who require stimulation as part of their standard of care, the investigators will compare the investigators imaging results with the stimulation results. The purpose of this study is to improve MRI mapping of the motor and language pathways in the brain. The scans are necessary stimulation for this protocol are part of the standard of care. In other words, these tests are done as part of the best possible care even if they did not join this study. The investigators are studying new techniques for analyzing the MRI data. These new techniques may give the doctor a better view of where the brain tumor is located relative to important parts of the brain. The investigators will only perform the test sequences that are necessary for mapping the tumor. Most patients will require both fMRI and DTI. Some patients may only require fMRI or DTI. The investigators may also ask to perform optional sequences during the scan. Multi-echo is an modified form of fMRI. DSI is a modified form of DTI. These optional sequences are for research only. The patient would not get these sequences if they do not enroll in this study.
The purpose of this study is to test the safety of a new method to treat Diffuse Intrinsic Pontine Glioma (DIPG). The researchers will use "convection-enhanced delivery" (CED) to deliver an agent called 124I-omburtamab. CED is performed during surgery. The study agent is infused through a small tube placed into the tumor in the brain. Many studies have shown this can safely be done in animals but this study is the first time 124I-omburtamab will be given by CED in humans. This will be one of the first times that CED has been performed in the brain stem. Omburtamab is something called an antibody. Antibodies are made by the body to fight infections and sometimes cancer. The antibody omburtamab is produced by mice and can attack many kinds of tumors. A radioactive substance, 124I-omburtamab, is attached to omburtamab. 124I-omburtamab sticks to parts of tumor cells and can cause the tumor cells to die from radiation. Studies have also been done on humans using 124I-omburtamab to treat other kinds of cancer. Our studies of some DPG and related tumors suggest that omburtamab will bind to the tumor, but the investigators don't know that for sure. In this study, the researchers want to find out how safe 124I-omburtamab given by CED is at different dose levels. They will look to see what effects (both good and bad) it has on the patient. The dose of 124I-omburtamab will increase for each new group of patients. The procedure has already been safely performed with lower doses and infusion volumes in a number of patients here at MSKCC. The amount they get will depend on when they enter the study. If too many serious side effects are seen with a certain dose, no one will be treated with a higher dose, and some more patients may be treated with a lower dose to make sure that dose is safe.
The purpose of this Phase 1/2, open-label, single-arm study is to determine the safety and the maximal tolerated dose (MTD) of VAL-083 in patients with recurrent malignant glioma. Pharmacokinetic (PK) properties will be explored and tumor responses to treatment will be evaluated.
The goal of this clinical research study is to find a safe dose of radiation that can be given to patients with brainstem glioma who have already received radiation therapy. You will receive photon radiation therapy. This type of radiation is similar to the radiation you have already had. Conformal radiotherapy or intensity modulated radiotherapy (IMRT) will be used to try to treat the tumor while affecting as little of the surrounding normal tissue as possible.
Background: The National Cancer Institute (NCI) Surgery Branch has developed an experimental therapy for treating patients with gliomas that involves taking white blood cells from the patient, growing them in the laboratory in large numbers, genetically modifying these specific cells with a type of virus (retrovirus) to attack only the tumor cells, and then giving the cells back to the patient. This type of therapy is called gene transfer. In this protocol, we are modifying the patient's white blood cells with a retrovirus that has the gene for epidermal growth factor receptor (EGFR) vIII incorporated in the retrovirus. Objective: The purpose of this study is to determine a safe number of these cells to infuse and to see if these particular tumor-fighting cells (anti-EGFRvIII cells) are a safe and effective treatment for advanced gliomas. Eligibility: - Adults age 18-70 with malignant glioma expressing the EGFRvIII molecule. Design: Work up stage: Patients will be seen as an outpatient at the National Institutes of Health (NIH) clinical Center and undergo a history and physical examination, scans, x-rays, lab tests, and other tests as needed Leukapheresis: If the patients meet all of the requirements for the study they will undergo leukapheresis to obtain white blood cells to make the anti-EGFRvIII cells. {Leukapheresis is a common procedure, which removes only the white blood cells from the patient.} Treatment: Once their cells have grown, the patients will be admitted to the hospital for the conditioning chemotherapy, the anti-EGFRvIII cells, and aldesleukin. They will stay in the hospital for about 4 weeks for the treatment. Follow up: Patients will return to the clinic for a physical exam, review of side effects, lab tests, and scans every month for the first year, and then every 1-2 months as long as their tumors are shrinking. Follow up visits will take up to 2 days.
The best dose of radiation to be given with bevacizumab is currently unknown. This study will use higher doses of radiation with bevacizumab than have been used before. This study will test the safety of radiation given at different doses with bevacizumab to find out what effects, good and/or bad, it has on the patient and the malignant glioma or related brain cancers.
The purpose of this study is to test the effectiveness of a drug called erlotinib in treating the tumor. This is a multi-center pilot study that explores efficacy and molecular effects of high dose weekly erlotinib for recurrent EGFR vIII mutant malignant gliomas, and correlate molecular profile of pre-treatment tissue with outcome.