Brain Cancer

Background: Glioblastoma is a common brain cancer in adults. Treatment includes surgery, radiation, and chemotherapy. But this cancer can return after treatment and is often fatal. Researchers want to know if a study drug (LMP744) can kill glioblastoma tumor cells. Objective: To test LMP744 in people with glioblastoma. Eligibility: People aged 18 years or older with glioblastoma that returned after treatment. Design: Participants will be screened. They will have a surgery to remove a small sample of tumor tissue (biopsy) from the brain. This will be done under protocol 03-N-0164. They will stay in the clinic for 1 night. They will also have imaging scans and tests of their heart function. Participants will have a central line installed: A flexible tube will be inserted into a vein in the chest. It will be attached to a port under the skin. This port will be used to draw blood and give medicines without having to insert new needles into a vein. LMP744 will be given through the central line for 5 days in a row. Participants will remain in the clinic for this time. Participants will then have a second surgery to remove as much of their tumor as possible. They will remain in the clinic until they recover from the surgery. Then they will recover at home after surgery. Participants will return to the clinic to receive the study drug for 5 days in a row through the central line, once a month for up to 12 months. Blood tests, heart function tests, and periodic imaging scans will be repeated during these visits. Participants will continue to have telehealth visits every 3 months after they stop taking the drug.

Background: Glioblastoma is a common brain cancer in adults. Treatment includes surgery, radiation, and chemotherapy. But this cancer can return after treatment and is often fatal. Researchers want to know if a study drug (LMP744) can kill glioblastoma tumor cells. Objective: To test LMP744 in people with glioblastoma. Eligibility: People aged 18 years or older with glioblastoma that returned after treatment. Design: Participants will be screened. They will have a surgery to remove a small sample of tumor tissue (biopsy) from the brain. This will be done under protocol 03-N-0164. They will stay in the clinic for 1 night. They will also have imaging scans and tests of their heart function. Participants will have a central line installed: A flexible tube will be inserted into a vein in the chest. It will be attached to a port under the skin. This port will be used to draw blood and give medicines without having to insert new needles into a vein. LMP744 will be given through the central line for 5 days in a row. Participants will remain in the clinic for this time. Participants will then have a second surgery to remove as much of their tumor as possible. They will remain in the clinic until they recover from the surgery. Then they will recover at home after surgery. Participants will return to the clinic to receive the study drug for 5 days in a row through the central line, once a month for up to 12 months. Blood tests, heart function tests, and periodic imaging scans will be repeated during these visits. Participants will continue to have telehealth visits every 3 months after they stop taking the drug.

High-grade gliomas (HGGs) are among the most aggressive and treatment-resistant brain tumors. Immunotherapy with checkpoint inhibitors like nivolumab has shown promise, but its efficacy remains variable and poorly understood in this patient population. This clinical trial investigates a novel imaging-enabled formulation of nivolumab-IRDye800 (nivo800) which incorporates a near-infrared (NIR) fluorescent dye to enable real-time visualization of drug distribution within tumor tissue.

This pilot clinical study evaluates the safety and imaging performance of panitumumab-IRDye800 (pan800), a fluorescent, EGFR-targeted imaging agent - in patients undergoing neurosurgical resection of intracranial lesions.

The purpose of this study is to see if combining silevertinib with temozolomide after surgery and radiotherapy helps treat newly diagnosed glioblastoma (GBM) better than using temozolomide alone in the maintenance setting. Specifically, this study is being done to find answers to the following questions: * How much of the study drugs (silevertinib combined with temozolomide) should be given to participants with GBM? * What are the side effects participants have when taking the study drug (silevertinib combined with temozolomide)? * Can the study drug (silevertinib combined with temozolomide) help participants with GBM live longer without disease progression compared to treatment with temozolomide alone?

The purpose of this study is to determine whether AGuIX (Activation and Guidance of Irradiation by X-ray) gadolinium-based nanoparticles make radiation work more effectively in the treatment of patients with brain metastases that are more difficult to control with stereotactic radiation alone.

This study will test the hypothesis that vorasidenib in combination with lomustine will be safe and tolerable. The overall goal of this study is to identify the optimal vorasidenib dose that can be tested in a subsequent phase 2 study to determine the efficacy of vorasidenib in combination with lomustine in patients with recurrent IDH mutant gliomas.

The goal of this clinical trial is to learn if the newly designed group self-management program is feasible to conduct and improves mental and behavioral health outcomes compared to a control group in people diagnosed with brain cancer. The main questions it aims to answer are: * Is it feasible to conduct this program? * Does the new group self-management program improve behavioral health outcomes more than in the control group that will not be in a group setting?

This single center, single arm, open-label, phase 2 study will assess the safety and efficacy of a pedicled temporoparietal fascial (TPF) or pericranial flap into the resection cavity of newly diagnosed glioblastoma multifome (GBM) patients. The objective of the Phase 2 study is to demonstrate that this surgical technique is safe and effective in a human cohort of patients with resected newly diagnosed AA or GBM and may improve progression-free survival (PFS) and overall survival (OS).

This single center, single arm, open-label, phase I study will assess the safety of laparoscopically harvested autologous omentum, implanted into the resection cavity of recurrent glioblastoma multiforme (GBM) patients.

Primary brain cancer kills up to 10,000 Americans a year. These brain tumors are typically treated by surgery, radiation therapy and chemotherapy, either individually or in combination. Present therapies are inadequate, as evidenced by the low 5-year survival rate for brain cancer patients, with median survival at approximately 12 months. Glioma is the most common form of primary brain cancer, afflicting approximately 7,000 patients in the United States each year. These highly malignant cancers remain a significant unmet clinical need in oncology. The investigators have completed a Phase I clinical trial that has shown that Superselective Intraarterial Cerebral Infusion (SIACI) of Bevacizumab (BV) is safe up to a dose of 15mg/kg in patients with recurrent malignant glioma. Additionally, the investigators have shown in a recently completed Phase I/II clinical trial, that SIACI BV improves the median progression free survival (PFS) from 4-6 months to 11.5 months and overall survival (OS) from 12-15 months to 23 months in patients with newly diagnosed GBM. Therefore, this two-arm, randomized trial (2:1) is a follow up study to these trials and will ask simple questions: Will this repeated SIACI treatment regimen increase progression free survival (PFS-primary endpoint) and overall survival (OS-secondary endpoint) when compared with standard of care in patients with newly diagnosed GBM? Exploratory endpoints will include adverse events and safety analysis as well as quality of life (QOL) assessments. The investigators expect that this project will provide important information regarding the utility of repeated SIACI BV therapy for newly diagnosed GBM and may alter the way these drugs are delivered to our patients in the near future.

The purpose of this study is to evaluate the safety and efficacy of administering the medication capecitabine along with temozolomide when you start your monthly regimen of oral temozolomide for the treatment of your newly diagnosed glioblastoma multiforme (GBM). Capecitabine is an oral chemotherapy that is given to patients with other types of cancer. The study will evaluate whether the dosage of 1500 mg/m2 of capecitabine is tolerable after radiation, when taken along with temozolomide. It will also try to determine if the medication capecitabine helps patients respond to treatment for a longer period of time compared to just temozolomide alone, which is the standard of care.

Primary brain cancer kills up to 10,000 Americans a year. These brain tumors are typically treated by surgery, radiation therapy and chemotherapy, either individually or in combination. Present therapies are inadequate, as evidenced by the low 5-year survival rate for brain cancer patients, with median survival at approximately 12 months. Glioma is the most common form of primary brain cancer, afflicting approximately 7,000 patients in the United States each year. These highly malignant cancers remain a significant unmet clinical need in oncology. GBM often has a high expression EFGR (Epidermal Growth Factor Receptor) which is blocked by Cetuximab (CTX). The investigators have recently completed a separate Phase I clinical trial using superselective intra-arterial cerebral infusion (SIACI) of CTX after blood brain barrier disruption (BBBD) for recurrent GBM (Chakraborty et al, in revision, Journal of Neurooncology). The investigators found that intra-arterial infusion of CTX is well tolerated with few adverse effects. The investigators hypothesize that in patients with newly diagnosed GBM, repeated SIACI of this drug after BBBD will be safe and efficacious for our patients when combined with standard chemoradiation (STUPP protocol). This trial will be a non-randomized open label Phase I/II clinical trial. In addition to standard chemotherapy and radiation therapy (STUPP protocol) the patient will be given CTX intra-arterially after BBBD for a total of three doses at approximately post surgery days 30, 120 and 210.

Background: Primary central nervous system (CNS) tumors grow in the brain and spinal cord. These tumors are rare, but they are difficult to treat and often fatal. SmartMatch is a new technology that tries to help find the best medicines for the particular tumor by testing how small pieces of surgically removed tumor tissue react to different drugs. The study team wants to see if SmartMatch can complete the analysis and generate a report within 21 days from the time of the surgery. Objective: To better understand CNS tumors so doctors can find better ways to treat them in the future. Eligibility: People aged 15 years and older with recurrent CNS tumors. Patient must already be scheduled for a surgery for the tumor at the NIH. Design: The study team will collect a small amount of tumor samples during the planned surgery. They may also use tumor samples from previous procedures. No new or additional procedures will be done for the purpose of this study. The tumor samples will be sent to a lab for SmartMatch analysis. Once completed, the results will be shared with the patient and his/her local doctor. Together they can decide whether to incorporate the results into the treatment plan. It is important to know that the results may or may not be helpful. There will only be one blood test for research. Blood and tissue samples collected may be used for additional analysis. Tumor tissue may be used to grow additional samples for further study. Participants will receive a pathology diagnosis and mutation profile generated by pathologists who specialize in CNS tumors. The study team will seek updates on participant's health approximately every 6 months for 3 years. Tumor samples may also be collected from any additional surgery done at NIH during this time....

This is a pilot imaging study in participants treated with stereotactic radiosurgery (SRS) to treat brain metastasis. The purpose of this study is to see whether 18F-Fluciclovine positron emission tomography (PET) can be used as a biomarker to measure response or progression of brain metastasis after SRS.

This study will develop a whole-of-body markerless tracking method for measuring the motion of the tumour and surrounding organs during radiation therapy to enable real-time image guidance. Routinely acquired patient data will be used to improve the training, testing and accuracy of a whole-of-body markerless tracking method. When the markerless tracking method is sufficiently advanced, according to the PI of each of the data collection sites, the markerless tracking method will be run in parallel to, but not intervening with, patient treatments during data acquisition.

This is a research study to determine if a novel molecular magnetic resonance imaging (MRI) technique, called amide proton transfer (APT) imaging, is useful in identifying the most aggressive areas of tumor needed for radiotherapy of brain tumors.

The neurosurgical standard of care for treating a patient with a tumor invading hand primary motor cortex (M1) includes performing a craniotomy with intraoperative direct electrical stimulation (DES) mapping and to resect as much tumor as possible without a resultant permanent neurological deficit. However, the subjective nature of current intraoperative hand motor assessments do not offer a comprehensive understanding of how hand strength and function may be impacted by resection. Additionally, there is a paucity of data to inform how altering DES parameters may effect motor mapping. Here, the investigators seek to demonstrate a feasible, standardized protocol to quantitatively assess hand strength and function and systematically assess several stimulation parameters to improve intraoperative measurements and better understand how cortical stimulation interacts with underlying neural function.

The spread of cancer to the brain is referred to as brain metastases. Brain metastases are a common complication of cancer. This study is being done to determine whether the use of a new imaging agent, 18F-fluciclovine, is able to detect which patients are responding to radiation therapy. In addition, this study will look at the changes of the treated brain metastases using this imaging agent over time.

Primary brain tumors are typically treated by surgery, radiation therapy and chemotherapy, either individually or in combination. Present therapies are inadequate, as evidenced by the low 5-year survival rate for brain cancer patients, with median survival at approximately 12 months. Glioma is the most common form of primary brain cancer, afflicting approximately 7,000 patients in the United States each year. These highly malignant cancers remain a significant unmet clinical need in oncology. GBM often has a high expression of EFGR (Epidermal Growth Factor Receptor), which is associated with poor prognosis. Several methods of inhibiting this receptor have been tested, including monoclonal antibodies, vaccines, and tyrosine kinase inhibitors. The investigators hypothesize that in patients with recurring GBM, intracranial superselective intra-arterial infusion of Cetuximab (CTX), at a dose of 250mg/m2 in conjunction with hypofractionated radiation, will be safe and efficacious and prevent tumor progression in patients with recurrent, residual GBM.

The Multi-OutcoMe EvaluatioN of radiation Therapy Using the Unity MR-Linac Study (MOMENTUM) is a multi-institutional, international registry facilitating evidenced based implementation of the Unity MR-Linac technology and further technical development of the MR-Linac system with the ultimate purpose to improve patients' survival, local, and regional tumor control and quality of life.

The purpose of this study is to find out how much tratuzumab deruxtecan (T-DXd) can penetrate the tumor when injected into the body, and whether T-DXd may be an effective treatment for brain cancers that express the HER2 protein.

Post-craniotomy pain is common and often undertreated. Inadequate analgesia can lead to patient discomfort and higher opioid consumption, which may result in respiratory depression, sedation risks and impaired neurological assessment in the early postoperative period. The incidence of post-operative delirium after intracranial surgery was 19%, ranging from 12 to 26% caused by variation in clinical features and delirium assessment methods1. It is associated with increased morbidity, longer length of hospital stay, and harm to self or staffs. Dexmedetomidine (Precedex) is a highly selective α2-adrenergic agonist with the properties of analgesia, sedative, anxiolytic and neuroprotection without significant respiratory depression. Most of the trials administered a loading dose of 0.5-1.0 μg/kg intravenous dexmedetomidine over 10 minutes followed by infusion dose 0.2-0.7 μg/kg/hour. The use of intraoperative dexmedetomidine is believed to reduce the usage of postoperative opioids where frequent neurological assessment is often required in neurosurgical patients. Beyond the benefit of analgesia, perioperative dexmedetomidine has been studied for prevention of postoperative delirium. Randomized trials in mixed noncardiac surgical populations reported that low-dose perioperative dexmedetomidine may reduce the incidence of delirium. Dexmedetomidine produces dose-dependent bradycardia and hypotension, which should be carefully monitored to maintain the cerebral perfusion pressure in brain surgery. However, most trials and meta-analyses have focused on general surgical or cardiac cohorts; the evidence remains limited in neurosurgical (craniotomy) patients. Although it showed promising benefits of analgesia and neuroprotection in non-neurosurgical patients, recent meta-analyses of intraoperative dexmedetomidine reported high degree of heterogeneity due to the inclusion of varied procedures (elective vs emergent craniotomy), dosing regimes (loading dose only versus loading dose + infusion versus infusion only) and varied primary endpoints (postoperative pain scores, cumulative opioid consumption or incidence of delirium). Therefore, this randomized, double-blind, placebo-controlled trial is designed to examine the use of intravenous dexmedetomidine in the reduction of postoperative pain score and delirium in neurosurgical patients. We hypothesised that intravenous dexmedetomidine reduces postoperative pain score and delirium with lower need of rescue analgesia and amount of morphine consumption in patients undergoing craniotomy.

This is an observational case-control study to train and validate a genome-wide methylome enrichment platform to detect multiple cancer types and to differentiate amongst cancer types. The cancers included in this study are brain, breast, bladder, cervical, colorectal, endometrial, esophageal, gastric, head and neck, hepatobiliary, leukemia, lung, lymphoma, multiple myeloma, ovarian, pancreatic, prostate, renal, sarcoma, and thyroid. These cancers were selected based on their prevalence and mortality to maximize impact on clinical care. Additionally, the ability of the whole-genome methylome enrichment platform to detect minimal residual disease after completion of cancer treatment and to detect relapse prior to clinical presentation will be evaluated in lung cancer. This cancer was selected based on the existing clinical landscape and treatment availability.

This study uses a cranial implant to deliver cortical stimulation that, when paired with physiotherapy, will remap the brain so that critical brain functions can be protected during brain tumor surgery. This pilot study will provide initial evidence for the safety and feasibility of such a protocol which will lead to future pivotal trials that could radically change eloquent area brain surgery. For patients with otherwise incompletely resectable brain tumors, this could mean a longer life expectancy and a better quality of life.