About the Medical Physics Residency Program
The clinical practice of the Stanford University School of Medicine (SUMC) Department of Radiation Oncology is centered in the Stanford Comprehensive Cancer Center (SCCC), a National Cancer Institute designated cancer center.
The Stanford Radiation Oncology Physics Residency is structured as a two-year program of progressive, supervised clinical training in all areas of radiation oncology physics, with the purpose of enabling a resident to acquire the knowledge and skills needed to practice radiation oncology physics independently and gain board certification. An optional elective third year of research may be scheduled after the two fully-clinical training years for a clinically related project by agreement with and under supervision of a member of the radiation oncology physics faculty. The additional year is intended to provide clinically trained residents time to advance a translational research project, with consequent opportunities for accomplishments to support a career goal of being a clinician-scientist.
The mainstay of the curriculum is the instruction of residents by means of their performing clinical physics tasks under direct individual supervision of experienced mentors. Residents are afforded increased independence in performing these tasks, in so far as it has been demonstrated that they possess the capability of performing said procedures with reduced direct oversight. Mentors remain responsible for task completion, and in continuing with a defined task, residents gain opportunities to learn more nuanced aspects of the subject. The training program consists of a sequence of 1-3 month clinical rotations, each organized around a particular topic, plus one continuing program of twice-monthly meetings that broadly range across specific topics in medical physics, such as AAPM Task Group reports. Each rotation is mentored by one or two physicists. To complete a rotation, the mentors must verify that residents have achieved defined knowledge goals and competencies.
Rotation 1: Orientation; Simulation, Planning, and Treatment; Ethics; Accelerator Theory and Operation; Radiation Safety
Rotation 2: Linac Safety; Equipment QA; Patient-Specific QA; Shielding Calculations; Calibration Protocols
Rotation 3: 3D Treatment Planning; Basic Dosimetry Calculations
Rotation 4: IMRT and VMAT Planning; Physics Chart Checking
Rotation 5: Clinical Project
Rotation 6: Special Procedures; TBI and TSEI; Protons
Rotation 7: Brachytherapy
Rotation 8: Electronic Imaging; Motion Management
Rotation 9: Cyberknife Radiosurgery; Linac-based SBRT
Rotation 10: Community Practice
Rotation 11: Full Participation
Optional 3rd Year: Reserach