Medical Physics Residency
The objective of the Medical Physics Residency Program is to train individuals with medical physics and related education to practice professional radiation oncology physics. The program will provide comprehensive structured education and training in a clinical environment. The resident will be, upon completion of the program, competent in radiation oncology physics practice and implementation of new technology, and prepared to sit for the certification examination of the American Board of Radiology in Therapeutic Radiological Physics. As an option, the program will help the resident pick a research project that is likely to be completed with the residency period, to prepare the resident to be a leader in developing new technology in medical physics.
Watch our 2020 Duke Medical Physics resident recruitment video and hear from current residents, faculty, staff and alumni about what makes Duke Radiation Oncology a great place to train.
The Department of Radiation Oncology treats over 1800 patients at Duke University Medical Center and also provides professional and technical coverage for eight affiliated facilities. Equipment at Duke Hospital includes 8 modern LINAC accelerators, including 4 TrueBeam machines, all with OBI/CBCT for IGRT and gated treatment, 1 conventional simulator with CBCT capability in a brachytherapy suite, 2 large-bore CT simulator, 1 PET/CT, 1 MR unit, 2 HDR units, networked ARIA information system and Eclipse treatment planning systems across the system. Special procedures include SRS, SBRT, IMRT/IGRT, prostate seeded implant, HDR, IORT and TBI/TSI. In addition to clinical coverage, the division of radiation physics also provides physics teaching for graduate students in medical physics, both medical physics and radiation oncology residents, and medical students from Duke medical school. Active research programs mainly involve IMRT/IGRT, 3D dosimetry, oncologic and biological imaging, big data analytics and radiogenomics, modeling of radiation damage for normal tissues and of tumor control using radiation, advanced MR imaging, stereotactic radiosurgery, stereotactic body radiotherapy and image-guided brachytherapy.
The clinical training period is 2 years. Occasionally we offer positions combining 2 years of clinical training and 1 or 2 additional years of research.
This program is accredited by CAMPEP (the Commission on Accreditation of Medical Physics Educational Programs, Inc.).