View clinical trials related to Lung Neoplasms.
Filter by:The main objective is to identify obstacles and elements facilitating the implementation of a tracking device Broncho Pulmonary Cancer during the course of care. The secondary objective is to assess patient knowledge and information received on their previous occupational exposure during their professional activity. This is a prospective multicenter study of qualitative methodology through in-depth interviews conducted with patients treated at ICLN and CHU Saint-Etienne
Conduct a prospective study to confirm blood and urine ctDNA detection value in non-small-cell lung cancer patients.
This is a non-interventional, local, multicenter, cross-sectional study to determine the prevalence of epidermal growth factor receptor (EGFR) mutations in participants diagnosed with non-squamous non-small cell lung cancer (NSCLC).
Real-time optical surface monitoring data will be acquired from 44 human patients with primary or metastatic lung lesions during and after their 4DCT scan (standard-of-care at our institution). A patient-specific 4D model will be developed using the raw 4DCT projections time-correlated with real-time surface monitoring. In addition, before delivering each dose fraction (3 - 5 for lung SBRT), we will acquire three 15s kV fluoroscopic image acquisitions, time-correlated with optical surface monitoring. The acquisitions will be distributed over three well-spaced beam angles, e.g., every 4th angle for a 12-field plan.
This is a Phase I study of the ALK/FAK/Pyk2 inhibitor CT-707 in patients with ALK-positive non-small cell lung cancer. The purpose of the study is to determine the MTD/RP2D of CT-707 and evaluate whether CT-707 is safe and has beneficial effects in ALK-positive advanced non-small cell lung cancer.
This study assesses computed tomography (CT) perfusion imaging in predicting treatment response in patients with non-small cell lung cancer or tumors that have spread from the primary site (place where it started) to the lungs (metastases) treated with stereotactic ablative radiation therapy. CT perfusion imaging is a special type of CT that uses an injected dye in order to see how blood flow through tissues, including lung tissue. CT perfusion imaging of the lungs may help doctors learn whether perfusion characteristics of lung tumors may be predictive of response to treatment and whether lung perfusion characteristics can be used to follow response to treatment.
The purpose of this study is to confirm the safety of Apatinib at a dose level up to 750 mg/d with standard therapy of docetaxel (60 mg/m²) in advanced lung adenocarcinoma patients harboring wild-type EGFR after failure of first line chemotherapy and to determine the recommended dose for the Phase II trial.
EUS-FNA is the recommended diagnostic examination of choice when patients present with suspected lower mediastinal lymph nodes on imaging. EUS-FNA is minimal invasive and low in costs, and although it has a good record in detecting diseases (eg confirm a nodal metastasis or granulomas) it has limitations in excluding diseases (missing metastases/ or granulomas) resulting in a false negative rate of 15-20%. Substantial limitations that most likely can be attributed to areas within the node that are not sampled during EUS-FNA tissue acquisition. Improved needle based EBUS/ EUS guided nodal diagnostics might result in improved quality of the fine needle aspirations, reduce in surgical diagnostic procedures , reduced costs and result in a shorter timebefore-treatment interval.
AZD1775 (previously known as MK-1775 in earlier studies) is an inhibitor of Wee1, a protein tyrosine kinase. Wee1 phosphorylates and inhibits cyclin-dependent kinases 1 (CDK1) and 2 (CDK2), and is involved in regulation of the intra-S and G2 cell cycle checkpoints. CDK1 (also called cell division cycle 2, or CDC2) activity drives a cell from the G2 phase of the cell cycle into mitosis. In response to DNA damage, Wee1 inhibits CDK1 to prevent the cell from dividing until the damaged DNA is repaired (G2 checkpoint arrest). Inhibition of Wee1 is expected to release a tumor cell from chemotherapeutically-induced arrest of cell replication. In vitro experiments demonstrate that AZD1775 has synergistic cytotoxic effects when administered in combination with various DNA damaging agents that have divergent mechanisms of action. Therefore, the primary objective of the clinical development of AZD1775 is its use as a chemosensitizing drug in combination with a cytotoxic agent (or combination of agents) for treatment of advanced solid tumors. CDK2 activity drives a cell into, and through, S-phase of the cell cycle where the genome is duplicated in preparation for cell division. Inhibition of Wee1 is expected to cause aberrantly high CDK2 activity in S-phase cells which, in turn, leads to unstable DNA replication structures and ultimately DNA damage. Therefore, it is anticipated that AZD1775 will have independent anti-tumor activity in the absence of added chemotherapy. The tumor suppressor protein p53 regulates the G1 checkpoint. As the majority of human cancers harbor abnormalities in this pathway they become more dependent on S- and G2- phase checkpoints. Thus, S- and G2-checkpoint abrogation caused by inhibition of Wee1 may selectively sensitize p53-deficient cells. One hundred percent of SCLC has TP53 mutation, therefore we can expect that most of SCLC have lost G1 checkpoint and has high probability of WEE1 dependency for proper DNA repair and cell cycle progression. For this reason, SCLC could be a good clinical trial target disease for WEE1 inhibitor.
This protocol is a molecular screening protocol only. No drug intervention study will be included in this protocol. Based on the molecular profiling, patients may be eligible for drug intervention study of SUKSES trial. This procedure can be performed during or after the first-line treatment. DNA will be extracted from the archived or fresh tissue and blood. NGS-based cancer panel and Nanostring CNV will be tested with DNA from tissue and/or blood. Immunohistochemistry and FISH will be done by pathologists using archived or fresh tissue. Tumor tissues (fresh or archival) will be analyzed using NGS-based cancer panel, nanostring CNV, immunohistochemistry and/or FISH. Specific methods of each molecular tests will be defined with standard laboratory manual developed by pathologists.