Solid Tumor

Researchers are evaluating the safety of a radiation therapy method called image-guided stereotactic ablative radiation therapy IG-SABR for patients with high-risk centrally located non-small cell lung cancer NSCLC tumors or a single pulmonary oligometastatic lesion. This phase II, non-randomized study focuses on patients whose disease cannot be treated with surgery and aims to assess side effects by monitoring the number and severity of treatment-related toxicities. Patients must meet specific criteria related to tumor and normal tissue radiation doses to be eligible. Treatment involves delivering radiation in 8 sessions fractions, each with a dose of 7.5 Gy, using IG-SABR techniques that carefully target the tumor while respecting dose limits for surrounding normal tissues. The planning allows a minimum dose coverage between 75% and 95% of the planning target volume PTV and 75% to 99% of the gross tumor volume GTV. Respiratory monitoring will be used during treatment, which employs photon beams of 6-10 MV energy. Optional translational sub-studies involve biomarker discovery and protein analysis and are available only at participating centers. Participants will be assessed weekly during treatment and at multiple time points after treatment, including 2, 4, 8 weeks, and then at 3, 6, 9, 12, 18, 24 months, followed by annual visits up to 5 years. These evaluations include toxicity monitoring and survival assessments. The main outcome measured is the rate of severe treatment-related toxicity within one year after treatment. The study aims to include 60 evaluable patients and will stop enrolling if excessive severe side effects occur. The study period includes up to 5 years of follow-up for long-term safety and effectiveness outcomes.

Researchers are evaluating the combination of CGT9486 and sunitinib compared to sunitinib alone in patients with locally advanced, unresectable, or metastatic Gastrointestinal Stromal Tumors GIST. This Phase 3, open-label international trial involves multiple parts, including dose confirmation, drug interaction assessments, and efficacy comparisons. The study also includes substudies focusing on drug-drug interaction potential and first-line treatment in patients with specific genetic mutations KIT exon 9. Approximately 482 patients will participate across these parts.

The 100-Year Human Aging Study is a long-term observational research project enrolling adult participants to undergo detailed multi-system health screenings and follow them throughout their lives until death. The study aims to identify which health measurements taken at enrollment and repeatedly over time can predict overall mortality, cause-specific death, serious diseases, and functional disability. It addresses the current lack of validated longevity measures by generating data on how various physiological and cognitive functions relate to aging outcomes. Participants undergo a comprehensive clinical screening that includes tests of cardiorespiratory fitness, strength, mobility, neurocognitive performance, sensory functions, and metabolic health. Structural imaging assessments like DEXA scans, echocardiography, electrocardiography, spirometry, retinal photography, and vascular ultrasound are performed. Laboratory tests and detailed medical, social, and environmental histories are also collected. The study allows participation from single tests up to a full two-visit screening, with repeat testing encouraged to track health changes over time. Throughout the study, participants receive individualized reports with investigational estimates of biological age and predicted mortality risks, which are being evaluated against actual health outcomes. Researchers collect data continuously on mortality, disease occurrence, disability, and health behavior changes. The study involves ongoing follow-up with periodic assessments and aims to preserve all collected data for future analyses, with participant involvement potentially spanning their entire lifespan.

Researchers are evaluating the safety and appropriate dose of increasing levels of the radioactive drug 131I-TLX101, given by intravenous infusion, combined with the best standard care in adults newly diagnosed with glioblastoma, a type of brain cancer. This open-label, single-arm study is conducted across multiple centers and aims to understand how patients tolerate this treatment alongside standard therapies. Participants receive escalating doses of 131I-TLX101 through an intravenous infusion along with the standard chemoradiation therapy known as the Stupp regimen, beginning 3 to 6 weeks after surgical removal of the tumor. The study includes a dose-finding phase to establish the recommended dose, with safety monitored throughout. The radioactive drug is administered in ascending doses, and the study observes participants for up to 62 weeks. During the study, participants will undergo regular safety assessments including laboratory tests of liver and kidney function, monitoring for adverse events, and evaluations of treatment-related toxicities for up to 62 weeks. Researchers will track the incidence and severity of dose-limiting toxicities and treatment-emergent adverse events. Participants must comply with radiation safety guidelines and attend scheduled visits for monitoring. The total study duration from screening until the end is about 62 weeks.

Researchers are evaluating 177Lu-RAD204, a radiolabeled antibody targeting PD-L1, in a Phase 01 study involving participants with advanced solid tumors that express PD-L1. The study aims to assess the safety, tolerability, biodistribution, radiation dosimetry, and preliminary anti-tumor effects of this treatment. The main goal is to find the maximum tolerated dose and recommended doses for future studies in participants with cancers such as NSCLC, SCLC, triple-negative breast cancer, melanoma, head and neck cancer, endometrial cancer, and others with specific genetic markers. The study includes a pre-screening period for PD-L1 testing if needed, followed by a screening period lasting up to four weeks. Participants undergo a Phase 0 Imaging Period where a low dose of 177Lu-RAD204 is given to assess imaging quality, safety, and dosimetry over two weeks. This may be followed by a Phase 1 Treatment Period with escalating doses of 177Lu-RAD204 administered in cycles lasting six weeks each. Participants may receive multiple treatment cycles based on clinical benefit and safety evaluations. Dose-limiting toxicity is monitored for six weeks after the first treatment dose, and dosing intervals may be adjusted as agreed by the study team. During the study, participants will have imaging scans, safety evaluations, and laboratory tests to track the distribution and effects of 177Lu-RAD204. Researchers will measure pharmacokinetics, radiation dosimetry, and tumor responses up to 30 weeks. Safety and tolerability are closely monitored throughout. Participants must meet specific health and tumor criteria to join and will be observed for any adverse reactions. The total duration of participation varies depending on treatment response and tolerability.

Researchers are evaluating 177Lu-BetaBart, a 177Lu-labeled anti-B7-H3 monoclonal antibody, in patients with various relapsed or refractory solid tumors that are locally advanced, inoperable, or metastatic. This Phase 12a study aims to understand the safety, tolerability, how the drug moves through and affects the body, and early signs of anti-tumor activity. Eligible participants include adults 18 and older with cancers such as castration-resistant prostate cancer, colorectal cancer, lung cancers, head and neck cancer, ovarian, cervical, endometrial, triple negative breast cancer, and esophageal squamous cell carcinoma who have shown disease progression after recent treatments. The study has two main parts a Phase 1 dose escalation phase to find the maximum tolerated or recommended dose using a Bayesian design, and a Phase 2a dose expansion phase at that recommended dose to confirm safety and observe preliminary anti-tumor effects. Participants receive 177Lu-BetaBart through intravenous infusions every six weeks. Each phase includes a screening period, treatment and imaging period, and a safety and long-term follow-up period to closely monitor outcomes and side effects. During the study, participants undergo assessments including imaging for disease evaluation, laboratory tests for organ function and drug effects, and monitoring of side effects for up to 30 weeks. Key outcomes include determining the suitable dose for future studies, tracking adverse events, and measuring anti-tumor activity through objective response rates and biochemical responses in prostate cancer. Pharmacokinetics, radiation dosimetry, and biokinetics of the drug are also measured at specified time points. Safety and tolerability are evaluated continuously, with follow-up to monitor long-term effects and overall health.

Researchers are evaluating how well 177Lu-DOTATATE works to treat patients with stage IV or recurrent breast cancer that shows evidence of a protein called SSTR2. This phase II study explores whether this targeted therapy can shrink or destroy tumors and circulating cancer stem cells in the blood. 177Lu-DOTATATE combines a radioactive agent with DOTATATE, which attaches to tumor cells with SSTR2 to deliver targeted treatment. Participants receive 177Lu-DOTATATE intravenously over 30 to 40 minutes during weeks 1, 8, 16, and 24 if their disease does not progress and they do not experience unacceptable side effects. Before treatment, patients undergo imaging with gallium 68-DOTATATE PETCT scans and biopsies as needed. Throughout the study, patients have CT or MRI scans and blood samples collected to monitor disease and treatment effects. After completing the treatment phase, participants are followed every 3 months for up to 5 years. The research team measures tumor response, disease control, duration of treatment effect, progression-free survival, and treatment safety. Blood tests, imaging, and biopsies help track how well the therapy works and any side effects, supporting long-term monitoring of patient health.

Researchers are studying a new treatment called 177Lu-TATE-RGD for patients with tumors that have high levels of SSTR2 and integrin V3. This early-phase research aims to explore how well this treatment works and its potential for targeted radioisotope therapy, especially since previous studies showed that a similar dual-target tracer could better detect certain tumor metastases compared to single-target tracers. In this trial, all participants will first undergo a whole-body 68Ga-TATE-RGD PETCT scan within one week. They will then receive a single intravenous injection of 177Lu-TATE-RGD at doses ranging from 1.48 to 3.33 GBq 40-100 mCi within one week after the scan. Blood samples will be collected at several time points up to 168 hours after injection to measure radioactivity. Multiple imaging sessions will be conducted from 3 to 168 hours post-injection to analyze radiation dose and evaluate treatment response. Participants will be monitored through blood tests and imaging to assess how the drug is processed in the body and how tumors respond. The main measurement is the standardized uptake value of 177Lu-TATE-RGD in normal organs and tumors, tracked over an average of six months. Adverse events will also be collected for two months to monitor safety. This study is expected to continue until early 2025, providing valuable information on the therapys effects and tolerability.

Researchers are evaluating the diagnostic performance of two PET tracers, 18F-FDG and 68Ga-FAPI-46, in female patients with estrogen receptor-positive ER breast cancer. This pilot study focuses on patients with locally advanced, recurrent, or metastatic breast cancer and aims to determine if 68Ga-FAPI-46 detects more lesions than 18F-FDG, potentially leading to more accurate staging and treatment decisions. The study is sponsored by Maastricht University Medical Center and is conducted as a Phase 2 interventional trial. All participants will undergo an additional 68Ga-FAPI-46 PETCT and PETMRI scan before starting breast cancer treatment. These imaging exams will be performed within 20 working days from diagnosis and alongside the standard 18F-FDG PETCT or PETMRI scans. The study focuses on comparing these two diagnostic tracers accuracy in detecting cancer lesions in ER breast cancer patients. Participants will be followed from diagnosis until both PET exams are completed. The researchers will collect data to help calculate sample size for future studies and explore the feasibility of taking biopsies from lesions identified by the new tracer. Safety and ability to complete imaging procedures will be monitored. The total participation duration covers the time needed to conduct both imaging exams and any related assessments.

Researchers are evaluating a new PET imaging tracer called 18FFAPI-74 to detect cancer by targeting the fibroblast-activation protein FAP found in cancer-associated fibroblasts. This study aims to compare 18FFAPI-74 PET scans to the standard 18F-FDG PET scans and other imaging methods like CT or MRI across several cancers including pancreatic ductal adenocarcinoma, cholangiocarcinoma, hepatocellular carcinoma, gastric, bladder, ovarian cancers, pheochromocytomaparaganglioma, small cell lung cancer, neuroendocrine cancer, mesothelioma, and sarcoma. The study is a phase 2 interventional trial conducted by the National Cancer Institute NCI. Participants will receive an intravenous dose of 18FFAPI-74 before undergoing PETCT imaging about one hour later. They will also have a baseline FDG PET scan within one week. If tumors are detected by 18FFAPI-74, additional scans using this tracer and FDG may be repeated during routine treatment and if cancer progresses within two years. Those with negative baseline 18FFAPI-74 scans will not have repeated scans but remain in follow-up. The study involves a single arm where participants undergo both types of PET imaging. During the study, participants will have scans at baseline and potentially at subsequent treatment or progression points. Safety monitoring includes observation for reactions to the tracer up to three days after injection. Researchers will measure the mean number of lesions, standardized uptake values at baseline, post-treatment, and recurrence. Follow-up calls will continue for two years to assess progression-free survival and overall survival. The total participation duration includes imaging visits and two years of follow-up monitoring.