An enormous strength of the Fiona and Stanley Druckenmiller Center for Lung Cancer Research (DCLCR) is the breadth of world-class expertise of its members.

Our leadership alone represents tremendous translational research talent in lung cancer, collaborating on multidisciplinary research in such areas as:

  • genomic characterization of thoracic cancers
  • innovations in minimally invasive surgery
  • advances in medical therapies

Thoracic Surgery

Thoracic surgeon and scientist David Jones is Co-Director of the Fiona and Stanley Druckenmiller Center for Lung Cancer Research. He is Chief of MSK’s Thoracic Service in the Department of Surgery and is the Fiona and Stanley Druckenmiller Chair in Lung Cancer. He is a pioneer in lung cancer metastasis biology and biomarker development. His research focuses on understanding how lung cancer spreads and the biology and regulation of lung cancer metastasis. The Jones laboratory was the first to identify the importance of the metastasis suppressor gene BRMS1 in lung cancer. Dr. Jones is also interested in ADAR-mediated RNA editing and metastases in lung adenocarcinoma, as well as genomic and pathologic biomarkers that may predict recurrence following surgery to remove early-stage lung cancer. The Jones lab uses patient-derived organoids to study the biology of lung cancer metastases and speed new drug development.

Medical Oncology

Medical oncologist Charles Rudin, Chief of MSK’s Thoracic Oncology Service and co-director of the DCLCR, is a translational researcher and leader in the study of lung cancer and other thoracic malignancies as well as developmental therapy for advanced solid tumors. He has conducted novel studies using patient-derived tumor tissue for preclinical drug testing and has led comprehensive analyses of genomic alterations in small cell lung cancer. Dr. Rudin directs a broad research program of therapeutic study including laboratory-based treatment discovery and innovative early- and late-phase clinical trials.

Immunotherapy

Immunotherapy is a new type of cancer treatment. It works by harnessing a patient’s own immune system to fight cancer. This approach has dramatically changed the care of people with lung cancer. Immunotherapies are now a routine part of treatment for nearly all people with lung cancer. Yet there remains a critical need for more progress. In particular, it is important to identify the predictors of response to immunotherapy so these treatments can be given more precisely. Combination therapies that broaden the range of people who can benefit from immunotherapy need to be developed. Within the DCLCR, a multidisciplinary team of scientists and doctors tackle these challenges together, to ultimately improve outcomes for people with lung cancer.

Patient-Derived Xenografts

The DCLCR supports the creation, characterization, and distribution of primary patient-derived xenografts (PDXs). PDXs are created by implanting lung cancer tissue obtained from surgery directly into laboratory models, where they can be grown indefinitely. With a broad cross-section of different types of lung cancer PDXs, scientists can test therapies in the earliest stages of development. MSK’s PDX collection is one of the largest and most deeply annotated in the world containing over 300 lung models. These models have been shared with more than a 100 laboratories at MSK and at collaborating institutions. Studies published in several high-impact publications have used these models, which have also been a part of multiple clinical trials in the Thoracic Service at MSK. For more information about the PDX Program, please contact Kelly Clarke at [email protected].

Patient-Derived Organoids (PDO)

An important part of MSK’s translational lung cancer research program is developing model systems that closely mimic lung cancer in humans. Dr. Jones’s laboratory has established an Institutional Review Board–approved patient-derived organoid (PDO) program for primary lung adenocarcinoma and selected metastatic sites. Using cells from lung adenocarcinoma samples, small tumors are grown in the laboratory. They can then be genetically modified with CRISPR technology and used for in vitro and in vivo experiments. All PDOs are clinically annotated, pathologically confirmed, and genomically profiled using MSK-IMPACT™. Comprehensive PDO models represent a significant advance in scientists’ ability to understand the biologic processes of oncogenesis and metastases. They provide a platform to assess treatment strategies for genomically distinct lung adenocarcinomas. These models have been shared with numerous laboratories at MSK and collaborating institutions. The Jones lab is currently investigating more than 91 lung adenocarcinoma PDOs. For more information about the PDO Program, please contact Yuan Liu, MD, PhD at [email protected]

Thoracic Surgery Oncology Group (TSOG)

In collaboration with the American Association for Thoracic Surgery (AATS), the DCLCR supports the Thoracic Surgery Oncology Group (TSOG), which is led by Dr. Jones. Formed in 2017, the group aims to initiate, rapidly accrue patients for, and complete thoracic surgical oncology clinical trials in North America. Such trials can more rapidly advance the care of people with thoracic cancer. TSOG’s mission encompasses lung, esophageal, thymic, and pleural lining cancers, and tumors that have spread to the lungs. The group focuses on phase I/II studies, window of opportunity trials with correlative analyses, intraoperative imaging studies, relevant registry studies, and multidisciplinary study designs. MSK is the coordinating center for the 37 TSOG institutions. For more information on TSOG, please contact the Project Manager Maria Singh, at [email protected] or Project Coordinator Erin Carrol, at [email protected].

Clinical Trials Currently Open for Enrollment

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73 Clinical Trials found
Researchers are measuring the safety of ivonescimab when given with standard lung cancer treatments and seeing how well it works. The people in this study have been newly diagnosed with squamous non-small cell lung cancer that has metastasized (spread).
Researchers are comparing ivonescimab with pembrolizumab immunotherapy for the initial treatment of advanced lung cancer. The people in this study have non-small cell lung cancer (NSCLC) that has metastasized (spread).
Researchers are doing this study to see if giving LY3537982 with standard lung cancer drugs is safe and works well. The people in this study have non-small cell lung cancer that has spread. In addition, their cancers have a gene mutation (change) called KRASG12C, which can cause cancer cells to grow.
In addition, their cancers have a mutation (change) in the G12C location of the KRAS gene. Olomorasib may help slow or stop the growth of cancers with KRAS G12C mutations. It is taken orally (by mouth).
Researchers are comparing RMC-6236 with docetaxel for the treatment of lung cancer. The people in this study have non-small cell lung cancer (NSCLC) that has spread beyond its original location. In addition, their tumors have a mutation (change) in the RAS gene.
Researchers are comparing taletrectinib with a placebo (inactive drug) in people with non-small cell lung cancer (NSCLC). The people in this study have stage 1B-3A NSCLC that has a ROS1 gene fusion. They have had the tumor completely removed with surgery.
Researchers are assessing a personalized cancer vaccine called V940 plus pembrolizumab immunotherapy to prevent lung cancer recurrence. The people in this study had surgery to remove non-small cell lung cancer (NSCLC), followed by chemotherapy.
V940 is made in a laboratory. It uses genes in your cancer to teach your immune system to fight the cancer. V940 is given as an injection into a muscle. Pembrolizumab boosts the ability of the immune system to find and kill cancer cells. It is given intravenously (by vein).
The purpose of this study is to find the highest dose of the investigational drug BCA101 that can be given safely alone and in combination with the immunotherapy drug pembrolizumab in patients with advanced lung cancer that cannot be cured with standard treatments. BCA101 is an antibody that targets two proteins involved in cancer growth called EGFR and TGF-beta. By blocking these proteins, BCA101 may interfere with the signals that spur cancer growth. 
The purpose of this study is to find the highest dose of the investigational drug NVL-520 that can be given safely in people with metastatic solid tumors that contain a change (fusion) involving the ROS1 gene. A fusion gene is made when parts of two different genes join together. NVL-520 blocks the ROS1 protein, which promotes cancer cell growth and survival. It is taken orally (by mouth