Biomedical physics was born when medical researchers and physicists joined forces to use radiation to diagnose and treat patients. Researchers work to understand how molecular or cellular processes affect larger biological. At the most practical level, biomedical physics examines how physical principles and current instrumentation technology can be used in an increasing number of medical applications, including imaging, detection, and surgery.

After laying the groundwork in physics and biology, students advance to topics like “Electronics,” “Electromagnetic Waves and Optics,” and “Biological Imaging.” They also need an understanding of basic engineering and a good handle on calculus. In all courses, students have access to our state-of-the-art physics labs, in which faculty carry out cutting-edge research in the field.

A degree in biomedical physics prepares students for clinical service, consultation, and research positions. Biomedical physicists work in hospitals and are in demand in high-technology private industry engaging in research and development of diagnostic equipment. In government agencies, biomedical physicists are involved in the formulation and enforcement of regulations applied to the use of radiation in health-care delivery. Studies can lead to the development of diagnostic equipment, formulation of radiation regulations, or further medical study.