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113 active trials for Metastatic Cancer

Phase I/II Trial Investigating the Safety, Tolerability, Pharmacokinetics, Immune and Clinical Activity of SX-682 in Combination With BinTrafusp Alfa (M7824 or TGF-beta "Trap"/PD-L1) With CV301 TRICOM in Advanced Solid Tumors (STAT)

Background: Combination immunotherapy techniques are being explored to improve responses and enhance benefits in people with cancer. Researchers want to see if this type of treatment can help people with advanced solid tumors. Objective: To find a safe dose of SX-682 in combined treatment with Bintrafusp alfa and BN-CV301 vaccines and to see if this treatment will cause tumors to shrink. Eligibility: Adults age 18 and older with metastatic cancer may be eligible for the first part of the trial. Adults age 18 and older with metastatic triple negative breast cancer or p16 negative head and neck squamous cell cancer, and who are not candidates for curative surgery may be eligible for the second part of the trial. Design: Participants will be screened under a separate protocol. Participants may have tumor biopsies. They will have physical exams. Their symptoms and medicines will be reviewed. They will have blood tests. They will have electrocardiograms to evaluate their heart. Participants will have imaging scans of the chest, abdomen, and pelvis. They may have a procedure where a small tube with a tiny video camera is put into the nose to look at the throat if they have head and neck cancers. Participants will get bintrafusp alfa through an intravenous catheter. For this, a small tube is put into an arm vein. They will get BN-CV301 vaccines as injections in the arm or thigh. They will take SX-682 by mouth twice a day. They will take the study drugs up to 2 years. They will keep a medicine diary. Participants will have study visits every 2 weeks. They will have 1 or 2 follow-up visits within 30 days after they stop treatment. Then they will be monitored by phone or email for 2 years.

Start: November 2020
The Belgian Molecular Profiling Program of Metastatic Cancer for Clinical Decision and Treatment Assignment

PRECISION 1 will enroll patients with metastatic solid tumors. The local PI will verify if the candidate patient fits the inclusion/ exclusion criteria. The participant will sign the PRECISION 1 informed consent. NGS data will be collected from local panel testing on DNA extracted from tissue samples or plasma. Data will be collected from further molecular testing performed at the different laboratories: select rearrangements (fusion genes and translocations) by RT PCR, FISH or NGS; copy number variations of selected genes via the NGS platform (if possible) or using FISH or other technologies such as SNP arrays in case the NGS technology is incapable of giving this information. Results will be stored in the Precision Belgium section of the Healthdata database. Data on germline variants will also be collected in the Healthdata database whenever this information is available. The cooperating clinical investigator will decide with the patient the treatment strategy, -guided by the best interest of the patient and the availability of respective options : " Empirical " available approved treatment (for example chemotherapy, immunotherapy) Genotype-driven standard of care Inclusion in a genotype-matched clinical trial (includes signing of trial-specific IC) Inclusion in PRECISION 2 if options 2/3 not available. Irrespective of treatment choice, the patient will be followed by the collaborating clinician and will have follow-up data collected every 6 months for determination of disease status and survival endpoints. Clinical data will be collected and stored in the Healthdata database. Genomic data (somatic and germline whenever available) and clinical data (tumor type and stage, number of previous lines, treatment choice, response rate, PFS on chosen and previous treatments, …) will be uploaded on the Healthdata platform and can be consulted via password-protected web access by the local PI at each participating center. European regulation protecting patient privacy will apply ("GDPR").

Start: March 2019
A Study to Examine the Value of Broad Agnostic Next Generation Sequencing (NGS) Panel Testing Versus Reimbursed Organ-directed NGS: a Belgian Precision Study of the BSMO in Collaboration With the Cancer Center

Title of the study A study to examine the value of broad agnostic NGS panel testing versus reimbursed organ-directed NGS: a Belgian Precision study of the BSMO in collaboration with the Cancer Centre Study Number BSMO 2020-1 Study Phase Exploratory Sponsor Belgian Society of medical Oncology (BSMO) Treatment None Background and Rationale Several drugs targeting mutated gene products in cancer cells are available to Belgian patients through reimbursement of the drugs and, soon, by reimbursed organ-specific genomic testing. This context is unfavorable with regard to the following issues: Many more additional drugs with sound scientific rationale and preclinical evidence are available through clinical trials. The relevant genes are generally not included in the reimbursed NGS and ad hoc identification of such patients is extremely difficult and thus severely hampering the accrual in such trials. This denies patients a potential access to innovative treatments from which they could benefit and hampers progress. The same genes can be mutated in other cancer types, other than the reimbursed context, but are not detected due to the organ-specific approach in reimbursed NGS. Examination of these genes with an agnostic approach would give these other patients potential access to the drugs (via various routes, including clinical trials or medical need or otherwise) The broader panels applied by some Belgian platforms (50-100 genes), sometimes in an agnostic approach, do not cover all potentially actionable genes or not all types of actionable variants in these genes. Rearrangements which are highly actionable are not systematically covered in NGS testing, but rely on immunohistochemistry (if done at all) of fusion panels testing that requires additional funding. The various Belgian NGS labs use accredited but heterogeneous methodology and it has been reported that the detection rate of some mutations varies from one site to another. Therefore, from a patient and oncologist point of view there are current deficiencies that jeopardize optimal access of patients to current or novel genome-driven therapies. Defective identification of sensitive patients limits the implementation of clinical trials and their accrual rates and therefore the attractiveness of Belgium for such trials. There are more comprehensive commercial platforms that cover a large set of actionable genes (up to hundreds of genes) and the various types of mutations in these genes: sequence mutations, rearrangements, resulting in fusion genes, and gene amplifications. These commercial vendors have adequate comprehensive methodology but are too expensive (at their current public pricing) for general application. One of these is the platform of Foundation Medicine that builds on a large experience in variant annotation in the US and includes probably all current actionable targets including gene mutations, fusions, MSI, and TMB, all at once in one result. They also report actionability and established or clinical trial treatment options. To oncologists this is very attractive compared to the fragmented, sequential and very limited current reimbursed conditions. The investigators estimate that up to 20% of advanced cancer patients could get access to genotype-based treatment that are not covered by the organ-based reimbursement based access to NGS. This can be in the form of off-label application of reimbursed drugs, pharma-sponsored drug development trials that address a specific genotype or pharma sponsored or academic basket trials. Without broad agnostic testing the identification of eligible patients remains extremely difficult. A recent study [A study of genetic characteristics and suitability for targeted cancer treatment (TARGET)] showed that the rate of detection of actionable mutations increased from 28% with local testing to 66% with Foundation Medicine testing. Objectives To determine the added value of comprehensive and agnostic NGS versus "real-world" practice ("real-world" practice means local testing, no reimbursement for local testing and/or no accessible metastatic lesion) in providing patients with advanced/metastatic solid tumors access molecular guided therapy and/or immunotherapy based on genomic results. To describe the landscape of genomic alterations detected by reimbursed NGS To describe he landscape of genomic alterations detected by comprehensive panel testing To assess the technical success of comprehensive panel testing To describe the uptake of treatments recommended by the molecular tumor board guided by the genomic testing.

Start: October 2020
Study of Niraparib, TSR-022, Bevacizumab, and Platinum-Based Doublet Chemotherapy in Combination With TSR-042

Part A: To test the safety and tolerability of combination therapy with Niraparib and TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part B: To test the safety and tolerability of combination therapy with Carboplatin-Paclitaxel and TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part C: To test the safety and tolerability of combination therapy with Niraparib, TSR-042 and Bevacizumab and to establish a safe dose that will be used in a Phase 2 study. Part D: To test the safety and tolerability of combination therapy with Carboplatin-Paclitaxel, TSR-042 and Bevacizumab and to establish a safe dose that will be used in a Phase 2 study. Part E: To test the safety and tolerability of combination therapy with Carboplatin-Pemetrexed and TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part F: To test the safety and tolerability of combination therapy with Carboplatin-Pemetrexed, TSR-022 and TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part G: To test the safety and tolerability of combination therapy with Carboplatin-nab-Paclitaxel, TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part H: To test the safety and tolerability of combination therapy with Carboplatin-nab-Paclitaxel, TSR-022 and TSR-042 and to establish a safe dose that will be used in a Phase 2 study. Part I: To test the safety and tolerability of combination therapy with Carboplatin-Paclitaxel, TSR-022 and TSR-042 and to establish a safe dose that will be used in a Phase 2 study.

Start: October 2017