School of Medicine
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Irmina A. Elliott, MD
Clinical Assistant Professor, Cardiothoracic Surgery
BioDr. Elliott is a thoracic surgeon and clinical assistant professor in the Department of Cardiothoracic Surgery at Stanford University School of Medicine. She provides the complete spectrum of surgical care for lung cancer, esophageal cancer, mediastinal tumors, and more through the Stanford Health Care Thoracic Cancer Program. She specializes in minimally invasive, including robotic, approaches to thoracic surgery.
Dr. Elliott received fellowship training from Stanford University. She completed her residency at UCLA Medical Center.
Her research has received support from the National Institutes of Health. She has investigated cancer cell response to replication stress, outcomes in patients undergoing hyperthermic intrathoracic chemotherapy (HITHOC) for mesothelioma, complications after esophageal surgery, lymph node involvement in patients with carcinoid tumors of the lung, advanced techniques in robotic surgery, and other topics.
She has authored articles that have appeared in the Proceedings of the National Academy of Sciences (PNAS), Annals of Thoracic Surgery, JAMA Surgery, and other peer-reviewed publications. She also has contributed to textbooks including the content on social disparities in lung cancer for the book Social Disparities in Thoracic Surgery.
Dr. Elliott has made presentations to her peers at meetings of the American Association for Thoracic Surgery, Society of Surgical Oncology, Western Thoracic Surgical Association, and other organizations. Presentations focused on surgical treatment of patients with carcinoid tumor of the lung, improvement of mesothelioma patient survival, complications of esophageal surgery, novel targets for cancer treatment, and more. -
Jesse Engreitz
Assistant Professor of Genetics
Current Research and Scholarly InterestsRegulatory elements in the human genome harbor thousands of genetic risk variants for common diseases and could reveal targets for therapeutics — if only we could map the complex regulatory wiring that connects 2 million regulatory elements with 21,000 genes in thousands of cell types in the human body.
We combine experimental and computational genomics, biochemistry, molecular biology, and genetics to assemble regulatory maps of the human genome and uncover biological mechanisms of disease.