The curriculum provides a solid understanding of fundamental theories and advanced modeling techniques in modern physics, combined with state-of-the-art computational methods, preparing students to address complex physical problems across a wide range of scales and applications.

A solid up-to-date training in theoretical, mathematical and computational physics

Theoretical physics supplies the formal framework for describing physical phenomena, from elementary particles and funda-mental interactions to condensed-matter systems and quantum devices.

In this Curriculum, four mandatory courses establish rigorous foundations in quantum mechanics, quantum field theory, the physics of condensed matter, and modern statistical mechanics. Students acquire the mathematical structures and conceptual tools needed to analyze physical systems ranging from few-particle problems to complex many-body phenomena. Analytical methods are complemented by formal reasoning and critical thinking, preparing students for advanced theoretical challenges in both academic and applied contexts.

Computational physics is a core component of the curriculum. Advanced numerical simulations, high-performance computing, and data analytics are integrated across different areas, from quantum system simulations and electronic and optical properties of matter to astronomic scale modeling. Students gain hands-on experience with state-of-the-art research tools, preparing them for theoretical research and simulation-driven innovation.

Two complementary tracks: condensed matter and high-energy physics

The broad range of courses and the flexible structure of elective choices support two main specialization tracks, while allowing interdisciplinary study.

The quantum theory of condensed matter track addresses the fundamental properties of matter, from strongly correlated systems to low-dimensional and topological phases, including electronic, magnetic, and superconducting phenomena. It connects with nanoscience, quantum simulation, and quantum information processing, with applications in materials science, energy, and emerging quantum technologies.

The high-energy physics track focuses on fundamental interactions through quantum field theory and particle physics, covering gauge theories, the Standard Model, general relativity, and string theory. It also includes courses in astrophysics and cosmology, explored through modern theoretical and computational approaches.

Students may specialize in one area or build an interdisciplinary profile combining both tracks. Free-choice courses encourage exploration of connections with fields such as quantum technologies, computational biology, and advanced numerical methods.

Opportunities and perspectives

The final thesis project is carried out within research groups with strong international connections, often in collaboration with national research institutes and international centers.

Graduates are well prepared for doctoral programs in physics and for research-oriented careers in academic and research institutes, and high-tech industries. Their combined expertise in theoretical modeling and computational methods also supports interdisciplinary roles in quantitative R&D and data-driven science.