Brain Tumors

This multicenter randomized controlled trial aims to develop and evaluate two Smart Holistic Health Care Platforms (SHHCPs) for families of children with cancer in Taiwan: the Parent Smart Holistic Health Care Platform (P-SHHCP) for parents and the Child Smart Holistic Health Care Platform (C-SHHCP) for children. Children diagnosed with leukemia or brain tumors and their primary caregivers (parents) will be recruited from pediatric oncology and hematology units at four medical centers in northern Taiwan. The SHHCPs are designed to strengthen communication and connection between families and health care providers and to provide holistic support for physical, psychological, social, and spiritual needs during cancer treatment.The study will evaluate the effects of the P-SHHCP and C-SHHCP on the physical, psychological, social, and spiritual well-being of children with cancer and their parents during treatment.

This is a multi-center, retrospective, observational study to develop and internally validate an artificial intelligence (AI) foundation model for hierarchical classification of central nervous system (CNS) tumors using approximately 20,000 hematoxylin and eosin (H\&E) whole-slide images (WSIs) collected at Huashan Hospital Fudan University and Shandong Provincial Hospital. Archived pathology slides and linked de-identified clinical, histopathological, and molecular diagnostic data from patients who underwent neurosurgical tumor resection or biopsy between January 1, 2010 and December 31, 2025 will be retrospectively analyzed. The study aims to train and evaluate weakly supervised multiple-instance learning models using pathology foundation models and conventional convolutional neural network feature extractors to predict tumor category, tumor family, terminal WHO 2021 CNS tumor diagnosis, and selected molecular alterations directly from routine H\&E slides. Internal model validation will be performed using patient-level training, validation, and hold-out test datasets. Secondary analyses include comparison of model architectures, virtual molecular profiling, interpretability analyses using attention heatmaps, and comparison of AI-assisted versus pathologist-only diagnostic performance on selected internal test cases.

This clinical trial aims to evaluate the feasibility and safety of early post-operative brain PET-MRI imaging in adult patients who have undergone surgery for suspected glioblastoma. The study also seeks to validate specific nuclear imaging parameters for better detection of residual tumor tissue compared to standard gadolinium-enhanced MRI. The main objectives are to determine whether early PET-MRI within 48 hours post-surgery is feasible, to assess potential side effects related to imaging procedures, and to explore if PET parameters such as SUVmax, metabolic volume, and tumor-to-striatum ratio can improve the detection of tumor residue. A total of 15 patients will be included at a single site in France. Participants will undergo PET-MRI using 18F-DOPA and gadolinium, and will be monitored for radiation exposure and possible adverse events up to 24 hours after imaging.

The goal of this observational study is to explore the image quality of spectral CT deep learning reconstruction technology (Spectral Precise Image) of patients with confirmed brain tumors. The main question it aims to answer is: The Image Quality (IQ) and diagnostic confidence of Spectral Precise Image reconstructions

This is a retrospective study encompassing all \[18F\]FET PET scans performed at our centre. By analysing both static and dynamic scans, conducting in-depth kinetic modelling, and comparing quantitative parameters across different tumour types and clinical contexts, the study aims to determine the true diagnostic value of \[18F\]FET PET in everyday clinical practice. The ultimate goal is to identify imaging biomarkers useful for improving tumour characterisation and distinguishing recurrence from post-treatment changes, thereby strengthening the role of \[18F\]FET PET in modern neuro-oncology.

Postoperative pain is prevalent after intracranial surgery. Patients undergoing craniotomy are typically managed with short acting opioids to enable early and reliable post-operative neurological exam as well as avoid the risk of respiratory depression. However, a plethora of studies have shown that a majority of these patients experience moderate to severe pain in first 48 hours after surgery. Suboptimal pain control can lead to complications such as arterial hypertension and post-operative intracranial hemorrhage, and hence, increased morbidity and mortality. Intravenous (IV) methadone has a long analgesic half-life and has N-methyl-D-aspartate (NMDA) receptor antagonist and serotonin and norepinephrine reuptake inhibitor (SNRI) properties. It has previously been shown to reduce postoperative opioid requirements, postoperative nausea and vomiting (PONV), and postoperative pain scores in patients that underwent orthopedic, abdominal, complex spine, and cardiac surgery. Similar findings have been shown in obstetric patients that underwent caesarean delivery under general anesthesia as well as patients that underwent gynecologic surgery and received IV methadone intraoperatively. In a recently published retrospective study, a single intraoperative dose of IV methadone was well tolerated with lower pain scores as well as MME (oral morphine milligram equivalents) requirements for up to 72 hours after elective intracranial surgery. IV methadone has, however, never been compared with conventional management via IV remifentanil for functional recovery in patients undergoing elective intercranial surgery. The investigator's hypothesis is that intravenous (IV) methadone is non-inferior to IV remifentanil in patients who undergo elective intracranial surgery. It offers the advantage of being a single dose noninvasive analgesic modality that may contribute to decreasing MME consumption during the first 72 hours postoperatively, controlling postoperative pain, and improving quality of recovery after surgery.

When doctors perform surgery to remove brain tumors, the goal is to take out as much of the tumor as possible while keeping the patient's brain functions intact. However, sometimes patients have trouble with movements like walking or using their hands after surgery. One reason for this is unintentional damage to important areas of the brain during the operation. A technique called Transcranial Magnetic Stimulation (TMS) might help patients recover these lost abilities faster. The investigators are conducting a study to see if TMS can help patients recover their movement abilities after brain tumor surgery. TMS uses magnetic pulses to stimulate specific parts of the brain. In this study, the investigators will treat six patients with TMS once per day for three days in a row. Three patients with recent movement difficulties one to two weeks after surgery will be recruited for this study; they will also receive physical therapy. An additional three patients with persisting movement difficulties up to three years after tumor surgery will also be recruited for this study, regardless of whether or not they receive physical therapy. The investigators will use two standard tests to see how well patients can move before and after the TMS treatment. These tests will help the investigators understand if TMS is making a difference in their recovery.

This study focuses on rare brain tumors, which are heterogeneous entities with different morphological, biological, and clinical characteristics. Due to their rarity, many of these tumors fall under the RARECARE definition of rare tumors. The main objective of the study is to standardize care models and pathways for patients with rare brain tumors, using Artificial Intelligence (AI) and Machine Learning (ML) techniques to identify specific predictors of postoperative outcomes. The study includes both retrospective and prospective phases, with the collection of clinical, cognitive, and psychological data at various time points. Patients will undergo an early neuro-cognitive rehabilitation program using the RehaCom software, which will be conducted at home. The goal is to improve the quality of life and care for patients through a multidisciplinary and innovative approach.

Levetiracetam is the commonly preferred anti-seizure medicine in patients with brain tumors. This drug has reduced the risk of seizure events occurring but is associated with a risk of side effects such as increased headache, drowsiness, loss of muscle coordination, and psychological challenges in patients. In patients undergoing appropriate treatment for brain tumors and controlled of seizures in the initial few months of levetiracetam, the chance of further seizures is relatively low. The optimal duration to give levetiracetam is not well defined for these patients, and currently as standard treatment levetiracetam is continued for 2-3 years. This study aims to answer this question by comparing patients on a short course of levetiracetam (experimental arm) versus a longer course of levetiracetam (standard arm), with the anticipation that a shorter duration of treatment will not lead to increased seizure episodes.

The purpose of this research study is to collect and store brain tumor tissue samples for future research. The samples will become part of the University of Florida Brain Tumor Tissue Bank/Florida Center for Brain Tumor Research. The goal is to find improved treatments and cures for brain tumors.

The goal of this observational study is to develop an innovative, comprehensive, and explainable AI vision-language foundation model (VLM) to advance the diagnosis and interpretation of brain diseases using multi-modal data. We will include patient demographics, medical imaging data (such as MRI, CT, and PET scans), histopathological data, genomic data when available, and other necessary laboratory examinations and tests to establish a screening and diagnostic model for brain diseases.

Radiation constitutes an integral component in the management of primary brain tumors in pediatric and young adults like medulloblastoma, ependymoma, low-grade glioma, pituitary tumors, etc. A decline in neurocognitive outcomes is a multifactorial effect occurring from the primary disease as well as associated with treatments, including radiation. Since many of these tumors are highly curable, it is crucial to reduce long-term side effects, including memory loss, to improve the quality of life in these patients, leading to better rehabilitation. Radiation-induced neurocognitive deterioration is postulated to occur from multiple factors like neuroinflammation, vascular damage, and depletion of neural stem cells. The proposed study will prospectively evaluate 200 pediatric and young adults with brain tumors treated with radiotherapy. Biological samples (peripheral blood and cerebrospinal fluid) will be procured during routine investigations (an additional amount will be collected for study purposes without the need for additional investigations). Serial blood markers (whenever available pre-operative and before, during, and after completion of radiation) of neuroinflammation and neural markers will be tested in patients undergoing radiation as part of their standard treatment, and correlate with the neurocognitive outcomes measured by age-appropriate Wechsler intelligence scales. Also, the impact of clinical (e.g. age) and radiotherapy parameters like volume, dose of radiation, and technique (photon versus proton therapy) on acute (during radiotherapy) and late systemic inflammatory markers will be analyzed. The study will even provide the opportunity to know the influence of radiation on systemic neuroinflammatory markers in the human population, providing better biological insights into the neurocognitive decline. If proven successful, these biomarkers can be used in routine clinical practice for early intervention to improve neurocognitive function in patients receiving radiation (even for other histology or other patients receiving radiation like brain metastasis).

The purpose of this study is to create a prospective investigation to examine the effects of montelukast, almonds/almond oil, and specialized pro-resolving mediators (SPMs) on lipid profiles and tumor-associated macrophages (TAMs) in cancer patients (colorectal cancer, sarcoma, brain tumors, endometrial cancer, and ovarian cancer). The focus will be on assessing changes in lipid mediator concentrations, TAM reprogramming, and immune cell function in treated versus untreated patients. It is hypothesized that montelukast will reduce the pro-inflammatory effects of leukotriene B4 (LTB4), while SPMs and almonds/almond oil will shift the balance toward pro-resolving mediators, enhancing anti-inflammatory and immune-stimulatory responses and reprogramming TAMs.

MT027 is an off-the-shelf, allogeneic chimeric antigen receptor T cell (UCAR-T) injection prepared from healthy donor T cells targeting B7-H3. It is a next-generation, ready-to-use CAR-T product that can be used immediately and promptly for patients to solve the problem of unmet medical needs for a large number of patients who have a demand for CAR-T therapy but cannot receive it due to the common reasons of long production cycle, insufficient production capacity, and incompatibility of patients' T cells with the production conditions. In addition, the expected medical cost of allogeneic CAR-T cells is significantly lower, which can greatly alleviate the economic burden on patients. MT027 is prepared by expressing a chimeric antigen receptor (CAR) targeting B7H3 on gene-edited T cells through gene modification technology. MT027 products targeting the B7H3 target developed by Moxing Biotech avoid the potential graft-versus-host disease (GvHD) and host anti-graft reaction (HvGR) caused by the interaction between exogenous T cells and the patient's immune system, and have shown good safety and efficacy in recurrent high-grade glioma in the initial phase.

This protocol compares the toxicity of radiotherapy or radiochemotherapy applied with different radiation modalities - protons or photons. Patients with different kinds of brain tumours and foreseen high-dose radiotherapy can be included. The hypothesis of the trial is that the rate of chronic toxicity 1 year after the end of radiotherapy is 15% lower after proton compared to photon treatment.