Physics Residency Program Overview
The Medical College of Wisconsin Radiation Oncology Physics Residency Program is designed for individuals with a PhD (DSc) degree seeking training in the field of medical physics with a strong emphasis in both the academic and clinical facets of radiation oncology physics. The three-year residency program will prepare the resident for board certification and a professional career in both clinical and academic radiation oncology physics.
Training for the Physics Residency Program involves full participation of the physics resident in the clinical and research components of radiation oncology physics. Residents are trained under the supervision of experienced radiation oncology physicists. Areas of training include dosimetry, treatment planning, treatment aid design and fabrication, brachytherapy, radiation safety, radiation machine calibration, imaging, special procedures, and quality assurance. Throughout the training rotations, opportunities are available in various areas of research.
The knowledge obtained from participating in the Physics Residency Program will prepare the resident for certification in the specialty of Therapeutic Radiological Physics by the American Board of Radiology. The skills acquired from the hands-on training will prepare the resident for a career as a clinical radiation oncology physicist capable of independent practice.
This program was accredited by the Commission on Accreditation of Medical Physics Educations Programs, Inc. (CAMPEP) in 2010.
Physics Section – Radiation Oncology
The Physics Section of the Department of Radiation Oncology includes 13 radiation oncology physicists, 4 physics residents, 7 postdoctoral fellows, and other supporting staff. The physics staff and residents are employees of the Medical College of Wisconsin. In addition to the physicists and residents, X. Allen Li, PhD, the departmental Chief Physicist, also oversees six dosimetrists, two clinical engineers, and one mould technician who are employed by Froedtert Hospital. Clinical activities performed by the Physics Section include machine QA and treatment planning as well as development, implementation, and support for specific procedures such as imaging, image-guided RT (IGRT), intensity modulated RT (IMRT), stereotactic body RT (SBRT), 4D/gated RT, brachytherapy, and TomoTherapy. Research activities include developing strategies and tools for adaptive RT, biological/functional image-guided RT, RT outcome modeling, biologically based treatment planning, and strategies to manage respiratory motion.