Learning Outcomes

Upon completion of their studies, graduates of the MSc program in "Physical Principles of Biomedical Imaging and Radiation Protection" will have acquired a deep understanding of the fundamental principles governing biomedical imaging, the related biomedical research in image analysis and processing, and the scientifically validated knowledge of radiation protection, both in the fields of ionizing and non-ionizing radiation.

This MSc program equips its graduates with the essential qualifications to ensure comprehensive training for their academic, scientific, and research careers in a rapidly evolving and demanding scientific field.

In particular, graduates of the MSc program will:

Demonstrate a solid understanding of the principles, technologies, and methodologies of biomedical imaging, from conventional radiography and fluoroscopy to advanced modalities such as CT, nuclear medicine applications (scintigraphy, SPECT, PET), molecular imaging, ultrasound, magnetic resonance imaging (MRI), laser applications, and electron microscopy.
Master advanced imaging techniques and be familiar with state-of-the-art biomedical imaging technologies.
Apply knowledge of image analysis and processing using cutting-edge machine learning and artificial intelligence (AI) techniques for diagnostic and research applications.
Assess and mitigate radiation risks in hospital settings for both medical personnel and patients, ensuring the highest standards of safety in clinical practice.
Demonstrate expertise in radiation safety protocols, including the safe handling of radiation for medical purposes, accident prevention, and incident management.
Understand and comply with the legal and regulatory framework governing the use of ionizing and non-ionizing radiation in medical and research settings.
Implement quality assurance principles in radiological procedures, ensuring optimal patient care through rigorous adherence to radiation protection guidelines for personnel, equipment, and clinical environments.
Engage in interdisciplinary collaboration, effectively integrating imaging technologies with clinical and research applications in a multidisciplinary setting.
Enhance their problem-solving and critical thinking abilities in the evaluation, optimization, and development of imaging methodologies and radiation protection strategies.
Develop competencies in research methodology and scientific inquiry, fostering the ability to contribute to advancements in biomedical imaging and radiation protection through high-level academic and clinical research.

Furthermore, the MSc program is highly research-oriented, facilitating a natural progression to doctoral studies, thereby fostering the next generation of scientists and professionals in biomedical imaging and radiation safety.

By acquiring these competencies, graduates will be fully prepared to pursue careers in academia, healthcare, medical physics, imaging research, and regulatory institutions, addressing the increasing challenges and demands of the evolving biomedical imaging landscape.