Study of medical physics provides coherent management of basics knowledge from the field of medical physics and the ability to connect this knowledge with other important fields for the successful diagnosis and treatment of diseases, like anatomy, physiology, and radiotherapy. Students get skills for solving coherent problems like radiotherapy planning, calibration of the measuring systems, insuring quality assurance for the operation of medical devices. Study of medical physics allows students to understand basic structure of medical physics and its integration with subfields, especially with physics of radiotherapy, physics of diagnostic radiology, physics of nuclear medicine and health physics. During the time of the study, students will get familiar with informational-communicational technology and with systems that are used in diagnostics and treatment.
After the study
One of the most important factors in improving the treatment of complex diseases in last few decades is undoubtedly the development of accurate and reliable methods of medical imaging. Ultrasound, advanced X-ray methods, magnetic resonance and positron emission tomography have already become a standard of care in clinics. However, those methods are still improving. The task of medical physics in not only clinical imaging, but also the development of new methods (thermography, electrical impedance tomography) and improvement of the existing methods and devices.
An important part of medical physics is radiotherapy treatment planning and optimization. At lot of different aspects need to be taken into account in order to achieve minimum side-effects during the irradiation.
Radiation protection and quality assurance
Devices that produce ionizing radiation are by their nature a subject of strict controls and regulations. The devices in clinical use are a subject of daily, weekly and semi-annual precision testing to ensure accurate operation.
Master’s theses topics
- Modeling high-resolution imaging with positron emission tomography
- Modern LYSO modules for positron emission tomography (PET) – read more
- Determining bruise age with optical analysis – read more
- Photothermal tomography of biological samples – read more
- Modelling and simulation of impact of transcranial magnetic stimulation on electric field formation in brain tissue
- Analysis of hyperspectral images of biological tissues
- Detection of small-joint arthritis by a smartphone
- Optimisation of patient doses in FDG-PET imaging
- Individual 3D dosimetry calculation on basis of SPECT imaging in radionuclide therapies
- Patient dose estimation in I-131 thyroid therapy and correlation to other clinical parameters
- Optimisation of reconstruction parameters in FDG-PET brain imaging
- New type of ultra-fast sensor for TOF-PET imaging
- Optimization of acquisition and kinetic analysis methods for dynamic PET images
- Application of kinetic analysis on dynamic PET images for cancer treatment with antiangiogenic therapies
- Optimization of biologically conformal radiotherapy