Brain Metastases, Adult

Pharmacoscopy refers to an ex vivo real-time drug sensitivity profiling platform that has been shown to be of value in the treatment of leukemia (Snijder et al. 2017) (Kornauth et al. 2022) and may help to identify novel treatment opportunities for brain tumors as well (Lee et al. 2022). The rationale for pharmacoscopy-based drug sensitivity testing on real-time patient biopsies or surgery material is multiple: measuring drug response and sensitivity directly in real-time patient material, overcomes the problem of limited molecular biomarkers for established targeted therapeutic options and can identify effective drugs even for non-targeted therapies such as chemotherapy. It can also identify hitherto unknown specific vulnerabilities of cancer cells. Furthermore, testing directly on patient material overcomes the limitations of patient-derived cell cultures, organoids, and patient xenografts, as their prolonged culture times risk cellular adaptations and clonal selection that alter drug sensitivity. Pharmacoscopy maintains the tumor cell composition, including bystander cells or tumor microenvironment, and limits cell culture to max 48 hours. Furthermore, pharmacoscopy measures drug responses on a single-cell and on a high-content level, uniquely allowing to measure the drug sensitivity of tumor cells, and allowing to compare it to the drug cytotoxicity on healthy cells from the same patient. This relative readout has previously been shown to be essential for the correct prediction of a clinical response in haematological malignancies (Snijder et al. 2017) (Kornauth et al. 2022). The aim of this study is to generate preliminary data regarding superiority of the personalized pharmacoscopy-guided approach compared to a standard non-pharmacoscopy-guided approach, in patients with brain metastases with an indication for surgery, and limited therapeutic systemic options according to the treating physician.

The purpose of this study is to evaluate the local control rate on the target lesion at 6, 12, and 24 months after treatment with neoadjuvant stereotactic radiotherapy (SRS NEO group) compared to standard care, adjuvant stereotactic radiotherapy (POST OP SRS group).

The purpose of the study is to see if stereotactic radiosurgery/SRS is an effective treatment for people with a new diagnosis of brain metastases from small cell lung cancer/SCLC.

In this proposal, the investigators introduce advanced diffusion and volumetric imaging techniques along with innovative, automated image parcellation methods to identify critical brain regions, incorporate into cognitive-sparing SRS, and analyze biomarkers of radiation response. This work will advance the investigators' understanding of neurocognitive changes after brain SRS and help create interventions that preserve cognitive-function in brain metastases patients.

This pilot pragmatic trial evaluates the feasibility of avoiding radiation therapy in patients with brain metastases who demonstrate an intracranial response to systemic therapy-including immunotherapy, targeted therapy, and/or chemotherapy. The study will prospectively enroll 45 patients, divided into two cohorts: 30 with non-small cell lung cancer (NSCLC) receiving immunotherapy, and 15 with brain metastases from other solid tumors. Eligible participants must have at least one brain metastasis not planned for radiation or surgery and must be initiating or planning to initiate a systemic therapy regimen expected to penetrate the blood-brain barrier and achieve intracranial activity. All patients will undergo a re-evaluation brain MRI 4-8 weeks after initiating systemic therapy. If lesions are stable or regressing, patients will continue surveillance without radiation. If progression is noted, standard-of-care radiation may be administered at the discretion of the treating physician. The primary objective is to assess 6-month radiation therapy-free survival (RTFS) in NSCLC patients based on PD-L1 expression status. Secondary endpoints include intracranial progression-free survival, overall survival, radiation necrosis rate, and quality of life. This study seeks to inform future trial design and identify patients who may safely avoid brain radiation.

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 is a phase III randomized trial with the aim to compare preoperative HSRS to postoperative HSRS in patients with large at least one BMs from solid tumors suitable for surgical resection.

A single arm phase II study evaluating intracranial efficacy of tarlatamab in patients with asymptomatic active brain metastases from small cell lung cancer (SCLC).

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.

This is a randomized trial for patients with brain metastases in the primary motor cortex who have not had seizures to receive either the prophylactic anti-seizure medication levetiracetam (also known by its trade name Keppra) or proceed with standard of care management, which does not currently include prophylactic levetiracetam. Patients who enroll to this trial will be randomized to receive prophylactic levetiracetam or not receive prophylactic levetiracetam.

The goal of this study is to evaluate the feasibility and effectiveness of same-day radiation planning and treatment. The study will shorten the time interval between radiation planning (radiation mapping) and radiation treatment. The intent of this shorter time interval is to increase the likelihood that the brain metastases being treated remain fully within the high-dose radiation fields. Participants will be randomized to receive brain-directed stereotactic radiation with a 1mm margin or 0mm margin, have their simulation/radiation planning imaging on the same day that brain-directed stereotactic radiation is delivered, and have repeat simulation/radiation planning scans during the course of treatment if more than 2-3 days have elapsed since the most recent scans.

The purpose of this study is to develop and test a new magnetic resonance imaging (MRI) technique to see if it can be used to tell the difference between tumor growth from worsening of cancer and growth from the effects of treatment in participants who have brain tumors treated with radiation therapy called stereotactic radiosurgery (SRS).

A biomarker is a measurable indicator of the severity or presence of some disease state. In this study, brain metastases patients who will be receiving radiation treatment, will undergo CT (Computed Tomography) and MRI (Magnetic Resonance Imaging) scans prior to and after radiation treatment to measure these biomarkers. This is a single-center phase II study to validate the predictive abilities of biomarkers, in terms of determining how patients will respond to radiation treatment.

The research question is whether a single fraction of preoperative radiosurgery can reduce the incidence of leptomeningeal disease 12 months following resection of a brain metastasis (BM) as compared with 5 fractions of postoperative stereotactic radiotherapy.

This multi-site, Phase 1/2 clinical trial is an open-label study to identify the safety, pharmacokinetics, and efficacy of a repeated dose regimen of NEO212 alone for the treatment of patients with radiographically-confirmed progression of Astrocytoma IDH- mutant, Glioblastoma IDH-wildtype, and the safety, pharmacokinetics and efficacy of a repeated dose regimen of NEO212 when given with select SOC for the treatment of solid tumor patients with radiographically confirmed uncontrolled metastases to the brain. The study will have three phases, Phase 1, Phase 2a and Phase 2b.

This is a health services intervention study aimed at understanding the impact of intensive multi-disciplinary care compared with standard care on patient-reported symptom outcomes and prognostic awareness in patients with brain metastases.

This study is a Phase I/II study evaluating the safety and effectiveness of focused radiation therapy (radiosurgery) together with olaparib, followed by immunotherapy, for patients with brain metastases from triple negative or BRCA-mutated breast cancers. This study will have a Phase I portion in which subjects will be enrolled based on 3+3 dose escalation rules. Three dose levels of olaparib will be studied. Cycle 1 of study treatment will consist of Olaparib given twice daily concurrently with stereotactic radiosurgery (SRS). Olaparib will start one week prior to SRS and continue during and following SRS (1-5 fractions) for up to 28 days total. The number of doses of Olaparib will be dependent on how long it takes a subject to recover from SRS (ideally the subject will be off steroids, if they are required, at the start of Cycle 2, with exceptions outlined later in this section). Once the subject has recovered from SRS (based on investigator discretion) that will be considered the DLT period. Cycle 2 will be initiated with physician's choice systemic therapy and durvalumab. Cycle 2+ will equal 21 days. During Cycles 2 and 3, physician's choice systemic monotherapy will be given along with durvalumab per protocol. Each cycle will last 21 days. Imaging to evaluate intracranial and extracranial disease will be performed after Cycle 3, and subjects with response will continue with the systemic therapy and durvalumab until progression (intracranial or extracranial), unacceptable toxicity or death.

The purpose of this protocol is to create a repository of blood samples from patients diagnosed with primary and metastatic brain tumors who are being seen in the Department of Radiation Oncology at Duke Cancer Center.

This study aims to establish a large-scale, multi-center MRI database for malignant brain tumors. It will develop an artificial intelligence system for the segmentation and classification of multiple subtypes of brain tumors (including glioma, metastatic tumor and lymphoma et al.) using deep learning technology. This will address the issues of small sample sizes and limited classification performance in existing methods, thereby improving the accuracy of non-invasive preoperative diagnosis, reducing the need for biopsies, and having significant clinical translational value.

GENCONCOR-1 study is translational research aimed to investigate the concordance of the molecular genetic profile of the primary tumor and brain metastases (BM) of colorectal cancer (CRC). The study was conducted by post hoc analysis of pairs of samples of histological material with determination of the mutational status of genes KRAS, NRAS, BRAF, HER2 and MSI.

This study will evaluate whether the combination of sacituzumab govitecan (SG) and bevacizumab will result in shrinkage of brain metastases from patients with non-squamous non-small cell lung cancer (NSCLC), with disease progression on chemotherapy and immunotherapy.

The aim of the study is to show that rapid, simple targeted radiotherapy to brain metastases with 8 Gy / 1 is non-inferior to 20 Gy / 5 in terms of overall survival for patients with poor prognosis.

The aim of this study is to demonstrate if it is possible to delivering a novel and modern radiotherapy approach (Dose Escalated internal PTV (DE-iPTV)) and to collect health related quality of life in patients whose breast cancer has spread to the brain (brain metastases) at 8 weeks post enrolling into the study. The main questions that have been set out to to answer are: * Is it possible to deliver the novel radiotherapy approach, DE-iPTV? * Is it possible to measure health -related quality of life? * What impact does the novel radiotherapy approach have on: patient's quality of life, control of the brain metastasis (control of the lesion) and steroid use? Participants will: * Receive 5 doses of radiotherapy * Complete weekly quality of life (EQ-5D) assessments and medication (steroid) diaries (via telephone/ postal) until 12 weeks post enrolment * Be reviewed in clinic with up-to-date MRI scans at 8, 12 and 24 weeks post-enrolment * Complete a more detailed HRQoL panel of assessments will be assessed at baseline, 8 weeks, 12 weeks and 24 weeks post enrolment.

To observe the quality of life (QOL) and to report on toxicity and outcome parameters after the (repeated) use of local ablative therapy (LAT) i.e. stereotactic radiotherapy (SRT) for patients with multiple (4-10) brain metastases

Brain metastasis is the most challenging disease in the field of tumor treatment, with a median overall survival of only 1-2 months for untreated patients. Stereotactic radiotherapy (SRT) has the advantages of precise positioning, relatively concentrated dosage, shorter course, and lower toxicity. Several studies could effectively protect cognitive function and achieve better tumor control rate. Currently, it has gradually replaced WBRT as standard local treatment choice for brain metastases. SRT includes Stereotactic Radiosurgery (SRS) and Fractional Stereotactic Radiotherapy (fSRT). With the continuous updating of domestic radiation therapy equipment, the use of high-resolution multi leaf gratings enables the accuracy of fSRT based on linear accelerators to reach 0.5mm or even lower levels, and has gradually become one of the main choices for local treatment of a limited number of patients with brain metastases. However, there is currently no prospective randomized controlled study data analyzing the clinical benefits of different segmentation and dosages of SRT. In retrospective data comparing different segmentation schemes, researchers found that higher BED was associated with better local control. However, the ASTRO guidelines recommend relatively conservative doses for SRT of brain metastases, especially as the lesion volume increases, and the recommended dose of BED10 for SRT was only 48 Gy (30 Gy/5 Fx). This is based on the consideration that higher radiation exposure will bring a higher risk of radiation-induced brain necrosis. However, with the continuous updates of SRT treatment equipment and technology, existing technologies can achieve higher dose coverage for more brain metastases while meeting the normal tissue limit. Therefore, this study conducted a prospective intervention study to explore the feasibility and safety of optimizing SRT dosage based on normal tissue tolerance for the treatment of brain metastases, in order to further improve the therapeutic effect of intracranial lesions with brain metastases. This study is designed as a single arm open prospective study, assuming that under this treatment regimen, the proportion of patients with lesion prescription dose BED10\>50 Gy is 90%, and the incidence of radiation-induced brain necrosis within 1 year is 8.5%. The planned enrollment period is 2 years and follow-up period is 1 year. A total of 35 people need to be enrolled.