Spots Global Cancer Trial Database for NIR Fluorescence Imaging Technique in Thoracic Surgery With ICG

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Trial Identification

Brief Title: NIR Fluorescence Imaging Technique in Thoracic Surgery With ICG

Official Title: Phase 1 Study of NIR Fluorescence Guided Thoracic Surgery Using ICG

Study ID: NCT02611245

Conditions

Lung Cancer

Esophageal Cancer

Interventions

Indocyanine green

Study Description

Brief Summary: This study aims to first apply near-infrared fluorescence imaging technology in thoracic surgery with indocyanine green in China. To evaluate the feasibility usage of the investigators' fluorescence imaging systems and the safety applications in intraoperative sentinel lymph node mapping of lung and esophageal cancer, lung nodule imaging, lung segment resection boundary determination, esophagus - tubular anastomosis, thoracic duct imaging and chylothorax repairing thoracic surgery. Aim to achieve precise boundaries definition during thoracic surgery and realize accurate, minimally invasive thoracic surgery with fluorescence imaging technology.

Detailed Description: Lung cancer is a major threat to human health. Diagnosis and treatment using precision medicine is expected to be an effective method for preventing the initiation and progression of cancer. Although anatomical and functional imaging techniques such as radiography, computed tomography (CT), magnetic resonance imaging (MRI) and positron emission tomography (PET) have played an important role for accurate preoperative diagnostics, for the most part these techniques cannot be applied intraoperatively. Optical molecular imaging is a promising technique that provides a high degree of sensitivity and specificity in tumor margin detection. Furthermore, existing clinical applications have proven that optical molecular imaging is a powerful intraoperative tool for guiding surgeons performing precision procedures, thus enabling radical resection and improved survival rates. However, detection depth limitation exists in optical molecular imaging methods and further breakthroughs from optical open surgery to minimally invasive intraoperative imaging methods are needed to develop more extensive and comprehensive intraoperative applications.