About the Division

Welcome to the Division of Medical Physics and Engineering, a branch within the Department of Radiation Oncology at UT Southwestern Medical Center.

Our Division is composed of more than 80 employees, including medical physics faculty, medical dosimetrists, engineers, programmers, IT personnel, administrative staff, medical physics residents, postdoctoral fellows, graduate students, and visiting scholars and students.

We are engaged in three primary areas of activity: clinical service and consultation, research and development, and education.

Our vision is to become one of the world’s leading academic medical physics programs in all three areas by working closely with clinicians and researchers in other relevant areas to solve important clinical problems through technological innovation.

Division Research

We are focused on four main areas of research:

Computational Medical Physics

This includes computational methods in particle therapy (physical simulation, facility design, and technology optimization); Monte Carlo treatment planning for small animal SRS; and modeling of in vivo tumor and normal tissue response to large dose per fraction radiation.

Adaptive Radiotherapy Strategies

Emphasizing precision to facilitate large dose per fraction radiation delivery to many anatomical sites, our research includes: development of new clinical delivery technologies (such as extended source-to-surface distance, or SSD, SBRT, and robotic couch and motion adaptive delivery); integration of real-time tracking technologies in the clinical research environment (including electromagnetic tumor tracking and four-dimensional imaging coupled to mechanical and electronic delivery systems); algorithmic development for motion adaptive therapies (including DMLC and Arc IMRT); and systematic development and evaluation of molecular imaging in clinical and pre-clinical applications.

Advanced Pre-clinical Irradiation Capabilities

We develop and build advanced anatomical and molecular imaging for small animal irradiators, including device fabrication and dosimetry, and “common animal environments” for imaging and irradiation. We also evaluate and expand models for assessment of normal tissue toxicity.

Advanced Radiation Dosimetry

Techniques are developed for real-time applications as well as to establish national dosimetry standards for both academia and the industry.