Medical Physics Track
Medical physics is a field that applies concepts and methods of physics to medicine. The research focus of the Medical Physics Track in the BME Graduate Program at UT Southwestern is the development of cutting-edge imaging and therapeutic tools to help cancer radiotherapy treatment. For more details, review the Medical Physics Degree Plan.
Specific areas include, but are not limited to:
- Medical image reconstruction and application in radiotherapy
- Radiotherapy treatment planning and adaptive replanning
- Deep learning and Artificial Intelligence for radiotherapy
- High-performance computing for radiotherapy, such as Monte Carlo radiation transport simulation
- Modeling of organ motions and development of motion management strategies
- Development of advanced clinical and preclinical imaging and therapeutic approaches
- Modeling radiobiological phenomena and understanding the mechanisms
The Student Experience
The Medical Physics track is offered to students who have undergraduate training in physics, engineering, computer science, or related physical sciences who would like to establish a career in medical physics research or clinical service. Students in the medical physics track experience a wide spectrum of training activities to complement their research, including coursework in radiological physics, imaging, anatomy and physiology, seminars, journal clubs, and clinical rotations.
The Medical Physics track is accredited by the Commission on Accreditation of Medical Physics Education Programs (CAMPEP), which recognizes that our training has met CAMPEP requirements. This is required for students who would like to establish a career in clinical medical physics. The accreditation allows graduates to apply for CAMPEP-accredited residency training and pursue board certification from the American Board of Radiology.
The Medical Physics track is accredited by the Commission on Accreditation of Medical Physics Education Programs (CAMPEP). CAMPEP can be contacted by email or:
Research Interests: Cloud and GPU-based high-performance computing in medical physics and imaging; automatic radiotherapy treatment planning; adaptive radiotherapy; image-guided radiotherapy; low-dose and dynamic-cone-beam CT
Research Interests: Adaptive radiation therapy; treatment-plan optimization; radiation-dose calculations
Research Interests: Tomographic image reconstruction; cone-beam computed tomography; image-guided radiation therapy; medical imaging processing
Research Interests: Biomedical optics, In Vivo cell tracking, Optical tomography-guided radiation therapy and Ultra-high dose rate irradiation
Research Interests: Bioinformatics, Biostatistics, Machine learning, Immunogenomics, and Tumor genomics
Research Interests: 3D/4D CT/CBCT reconstruction and analysis, 4D MRI reconstruction, artificial intelligence and automation in radiation therapy, biomechanical modeling and finite element analysis, deformable registration and its application in image-guided radiation therapy, radiotherapy dose calculation and plan optimization
These faculty members do not accept graduate students. They participate in teaching, co-mentoring, exam and dissertation committees, and all other program activities.
Research Interests: Adaptive radiation therapy, MRI-based radiation therapy
Research Interests: Evaluate the use of newly designed biodegradable stints to treat pulmonary artery stenosis
Research Interests:Tissue-response modeling in radiation therapy; brachytherapy
Research Interests: General psychiatry, aging and geriatric issues, new applications of lead placement in ECT and novel treatments of major depressive disorder including magnetic seizure therapy, transcranial magnetic stimulation, deep brain stimulation, and vagus nerve stimulation
Research Interests: Tissue-response modeling in radiation therapy; stereotactic radiation therapy
Research Interests: High-performance computing; infrastructure for radiation therapy; radiobiological effects