University of Pavia Master of Science in Physics - Biomedical Physics Curriculum
University of Pavia

University of Pavia

Master of Science in Physics - Biomedical Physics Curriculum

Pavia, Italy

MSc

2 years

English

Full time

14 Sep 2026

EUR 400 / per year **

On-Campus

* 1st call dedicated to EU and NON-EU applicants

** students may be eligible to apply for a flat rate or to tuition fees calculated according to their family income

Key Summary

    About : The Master's Degree in Physical Sciences - Biomedical Physics Curriculum offers an interdisciplinary approach, combining physics with biomedical applications. This program prepares students to tackle challenges in medical imaging, radiation therapy, and other health-related technologies. The course enables students to develop both theoretical knowledge and practical skills through hands-on projects and research.
    Career Outcomes : Graduates can explore a variety of career opportunities. Potential paths include positions in medical physics, healthcare technology, diagnostic imaging, and research in academic or private sectors. Additionally, they may pursue further academic research or doctoral studies in a related field.

The Master’s degree in Physical Sciences – Biomedical Physics is a track (curriculum) of the Master’s degree program in Physical Sciences offered by the University of Pavia. This Master’s Degree Program is entirely taught in the English language.

To attend this Master’s Degree Program, a solid knowledge of Modern Physics and its theoretical, experimental and application-oriented aspects is required, together with a solid mastery of the scientific method of investigation. It is also necessary to possess an in-depth knowledge of measuring instruments and data analysis techniques, as well as the necessary knowledge of mathematical and IT support tools.

The Master’s degree in Physical Sciences – Biomedical physics curriculum provides physical, biological and radiobiological knowledge, calculation tools, physical techniques, and skills on instrumentation and mathematical methods also used in hospitals and the medical industry.

The program focuses on basic and applied research in fields such as: medical diagnostics (for example with the development of imaging techniques, such as magnetic resonance, PET, SPECT and CT, or sensors for monitoring vital signs or therapies through measurement of suitable biomarkers); clinical therapy (for example with the study and development of advanced radiotherapy techniques, such as hadrontherapy, neutron capture therapy and oncological hyperthermia); dosimetry and ionizing and non-ionizing radiation protection.