Physics
Course Description
Level: Second Level Degree
Degree Class:
LM-17 R - Content in Italian
Fisica
Department: PHYSICS
Admission: Free
CFUs: 120
Duration: 2 years
Website: https://www.df.unipi.it/didattica/laurea-magistrale/presentazione/
Italian
Pisa
The Master’s Degree Course in Physics trains graduates with a solid cultural background in various areas of Physics. It provides mastery of scientific investigation methods, knowledge of data analysis techniques, and the use of mathematical and IT support tools.
The course offers six curricula - Theoretical Physics, Physics of Matter, Medical Physics, Physics of Fundamental Interactions, Astronomy and Astrophysics, and General Physics - which in turn include different study plans, including:
Astronomy and astrophysics - developing methods for investigating astrophysical and space issues
Complex systems - providing skills to study complex systems, characterised by numerous interacting components
Data analysis in experimental physics - deepening aspects of data analysis also in experimental physics applications
Theoretical Physics - focusing on quantum field theories, phenomenology of fundamental interactions, gravitational theory, statistical physics, and nuclear interactions.
For the other curricula, please visit the Department of Physics’s website
Content in Italian
Il corso di laurea non è ad accesso programmato.
Requisito curriculare generale per l'ammissione è il possesso di una laurea triennale in Fisica (classe 25 o classe L-30).
Sono ammessi laureati di altre classi, con titolo conseguito in Italia o equivalente titolo conseguito all'estero, purché in possesso di 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08).
Sono ammessi inoltre gli studenti di Università con cui siano in vigore apposite convenzioni, secondo i requisiti in esse specificati.
Il consiglio, in presenza di laureati con elevata preparazione, ma privi dei 90 crediti nei settori di Fisica, potrà prescrivere eventuali ulteriori insegnamenti da superare prima dell'effettiva immatricolazione alla LM e, ove necessario, vincolerà il percorso magistrale a un preciso e ben delineato piano di studi.
E' richiesta una buona conoscenza della lingua Inglese (livello B2 o superiore).
Il corso di laurea non è ad accesso programmato.
Requisito curriculare generale per l'ammissione è il possesso di una laurea triennale in Fisica (classe 25 o classe L-30).
Sono ammessi laureati di altre classi, con titolo conseguito in Italia o equivalente titolo conseguito all'estero, purché in possesso di 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08).
Sono ammessi inoltre gli studenti di Università con cui siano in vigore apposite convenzioni, secondo i requisiti in esse specificati.
Il consiglio, in presenza di laureati con elevata preparazione, ma privi dei 90 crediti nei settori di Fisica, potrà prescrivere eventuali ulteriori insegnamenti da superare prima dell'effettiva immatricolazione alla LM e, ove necessario, vincolerà il percorso magistrale a un preciso e ben delineato piano di studi.
E' richiesta una buona conoscenza della lingua Inglese (livello B2 o superiore).
Content in Italian
Coloro che posseggono i requisiti curriculari per l'ammissione al corso di Laurea Magistrale cioè 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08) sono ammessi di diritto alla LM. Gli studenti di Università con cui è in vigore una convenzione sono ammessi secondo i requisiti in essa specificati.
Agli studenti laureati, con elevata preparazione ma privi del requisito di 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08), una specifica Commissione, preposta alla valutazione, indicherà eventuali ulteriori insegnamenti da superare prima dell'immatricolazione e, ove necessario, vincolerà il loro piano di studi magistrale.
Coloro che posseggono i requisiti curriculari per l'ammissione al corso di Laurea Magistrale cioè 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08) sono ammessi di diritto alla LM. Gli studenti di Università con cui è in vigore una convenzione sono ammessi secondo i requisiti in essa specificati.
Agli studenti laureati, con elevata preparazione ma privi del requisito di 90 CFU maturati nei SSD di Fisica (SSD FIS/01-08), una specifica Commissione, preposta alla valutazione, indicherà eventuali ulteriori insegnamenti da superare prima dell'immatricolazione e, ove necessario, vincolerà il loro piano di studi magistrale.
Course Evaluations
Contacts
Presidente del Corso di Laurea
Stefano Roddaro
Email: stefano.roddaro@unipi.it
Referente didattico
Antonella Spinosa
Tel. (+39) 050 2214628
Email: antonella.spinosa@unipi.it
Unità Didattica del Dipartimento di Fisica: https://www.df.unipi.it/didattica/contatti
Orario di ricevimento: Stanza 27, primo piano, edificio B: lunedì dalle ore 08.30 alle ore 10.30; martedì e giovedì dalle ore 11.00 alle ore 13.00; mercoledì dalle ore 15.00 alle ore 17.00: segrdida@df.unipi.it
Study Plan
For students enrolled in the academic year 2025/2026
Astronomia e astrofisica
Required
- Astrophysics and multimessenger laboratory (12 CFU) - Ciclo annuale unico
- Stellar physics (9 CFU) - Secondo ciclo semestrale
- Astrophysical processes (9 CFU) - Primo ciclo semestrale
- Extragalactic astrophysics and cosmology (9 CFU) - Secondo ciclo semestrale
Gr microfisico i anno astr (9 CFU)
- Nuclear physics (9 CFU) - Primo ciclo semestrale
- Plasma physics (9 CFU) - Primo ciclo semestrale
Gr teorico i anno astr (9 CFU)
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Quantum field theory (9 CFU) - Primo ciclo semestrale
- General relativity (9 CFU) - Primo ciclo semestrale
Gr astr i anno astr (between 6 and 9 CFU)
- Detection techniques: from lab to space (9 CFU) - Secondo ciclo semestrale
- Multimessenger and high-energy astrophysics (6 CFU) - Primo ciclo semestrale
- Physics of star formation (6 CFU) - Primo ciclo semestrale
- Advanced technologies for ground-based astrophysics: from microwaves to visible light (6 CFU) - Primo ciclo semestrale
- Bayesian inference in astronomy & astrophysics (6 CFU)
- Fluid dynamics (6 CFU) - Primo ciclo semestrale
- Advanced technologies for ground based astrophysics (6 CFU)
- Physics and detectors of gravitational waves (9 CFU) - Secondo ciclo semestrale
- Physics and detectors of gravitational waves s (6 CFU) - Secondo ciclo semestrale
- Astroparticle physics s (6 CFU) - Secondo ciclo semestrale
- Compact star physics s (6 CFU)
- Stellar physics s (6 CFU) - Secondo ciclo semestrale
- Exoplanetary systems (6 CFU) - Secondo ciclo semestrale
- Astroparticle physics (9 CFU) - Secondo ciclo semestrale
- Astrophysics (9 CFU)
- Nuclear reactions of astrophysical interest (9 CFU)
- Cosmology of the early universe (9 CFU) - Secondo ciclo semestrale
- Compact star physics (9 CFU)
- Astrophysical black holes (6 CFU)
- Introduction to bayesian probability theory (6 CFU)
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Particle dark matter (6 CFU) - Primo ciclo semestrale
Required
- Final exam (45 CFU)
12 CFU a scelta II anno astr (12 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU)
- Theory of nuclear interaction (9 CFU)
- Theory of nuclear interaction s (6 CFU)
- Computer science with laboratory (6 CFU)
- Introduction to the physics of controlled nuclear fusion (6 CFU)
- The physics of every day life (6 CFU)
- Statistical analysis laboratory (6 CFU)
- Electronics and sensors (6 CFU)
- Accelerator physics s (6 CFU)
- Nuclear reaction theory (6 CFU)
- Gravitation theory s (6 CFU)
- Montecarlo methods in experimental physics (6 CFU)
- Signal processing (6 CFU)
- Statistical data analysis (9 CFU)
- Hadron collider physics (9 CFU)
- Solid state physics (9 CFU)
- Advanced quantum field theory (9 CFU)
- Complex systems (9 CFU)
- Nuclear reaction theory (9 CFU)
- Group theory (6 CFU)
- Fundamentals of light matter interaction (9 CFU)
- Fundamental interactions (9 CFU)
- Experimental methods for astroparticle physics (9 CFU)
- Experimental methods for astroparticle physics s (6 CFU)
- Computational physics laboratory (9 CFU)
- Multimessenger physics laboratory (9 CFU)
- Quantum optics and plasma physics (9 CFU)
- Nonperturbative approaches to quantum field theories (9 CFU)
- Computing methods for experimental physics and data analysis (9 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU)
- Particle physics s (6 CFU)
- Computational physics laboratory s (6 CFU)
- Quantum computing and technologies (9 CFU)
- Recent highlights in fundamental interactions (3 CFU)
- Instrumentation for fundamental interactions physics (9 CFU)
Fisica della materia
Required
- Fundamentals of light matter interaction (9 CFU) - Primo ciclo semestrale
- Physics of matter and nanotechnology laboratory (15 CFU) - Ciclo annuale unico
Gr teorico i anno f materia (9 CFU)
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Quantum field theory (9 CFU) - Primo ciclo semestrale
Gr microfisico 2 i anno f materia (9 CFU)
- Complex systems (9 CFU) - Primo ciclo semestrale
- Disordered systems out of equilibrium (9 CFU) - Primo ciclo semestrale
Gr microfisico 1 i anno f materia (9 CFU)
- Flexible and nano-electronics (9 CFU) - Secondo ciclo semestrale
- 3d and 4d nanomaterials and devices (9 CFU) - Secondo ciclo semestrale
- Quantum machine learning (3 CFU) - Secondo ciclo semestrale
- Neuroengineering (6 CFU) - Secondo ciclo semestrale
- Microbiorobotics (6 CFU) - Secondo ciclo semestrale
- Solid state physics (9 CFU) - Primo ciclo semestrale
- Plasma physics (9 CFU) - Primo ciclo semestrale
Gr a scelta i anno f materia (9 CFU)
- Fluid dynamics (6 CFU) - Primo ciclo semestrale
- Geophysical instrumentation and geophysical potential fields (6 CFU) - Primo ciclo semestrale
- Rock physics (6 CFU) - Primo ciclo semestrale
- Introduction to the physics of controlled nuclear fusion (6 CFU) - Secondo ciclo semestrale
- Quantum biology (9 CFU) - Secondo ciclo semestrale
- Graphics and animation with python (3 CFU) - Secondo ciclo semestrale
- Photonics and materials (6 CFU)
- Group theory for material science (3 CFU) - Secondo ciclo semestrale
- Spectroscopy algorithms (3 CFU) - Secondo ciclo semestrale
- Physics of surfaces and interfaces (3 CFU) - Primo ciclo semestrale
- Models for complex systems (6 CFU)
- Solid state laser (3 CFU)
- Biophysics (9 CFU)
- Physics of photonic devices (9 CFU) - Secondo ciclo semestrale
- Atom optics (9 CFU) - Secondo ciclo semestrale
- Biophysical modelling of complex systems (6 CFU)
- Complex systems - neural dynamics (9 CFU) - Secondo ciclo semestrale
- Disordered and off-equilibrium systems (6 CFU)
- Nonlinear dynamics (9 CFU) - Secondo ciclo semestrale
- Geophysical instrumentation and geophysical potential fields (6 CFU)
- New materials (6 CFU)
- Quantum optics and plasma physics (9 CFU) - Secondo ciclo semestrale
- Kinetic theory of plasmas (6 CFU)
- Electrodynamics of continuous media (6 CFU)
- Large scale physical oceanography (9 CFU) - Secondo ciclo semestrale
- Quantum computing and technologies (9 CFU) - Primo ciclo semestrale
- Quantum liquids (9 CFU) - Primo ciclo semestrale
- Material optical spectroscopy (6 CFU) - Primo ciclo semestrale
- Cell biophysics (6 CFU)
- Physics of biosystems (9 CFU) - Primo ciclo semestrale
- Introduction to molecular biophysics (6 CFU) - Primo ciclo semestrale
- Current trends in quantum matter (3 CFU) - Primo ciclo semestrale
- Quantum thermodynamics (6 CFU) - Secondo ciclo semestrale
- Entanglement: advanced theoretical concepts and applications in quantum technologies (3 CFU) - Secondo ciclo semestrale
Required
- Final exam (45 CFU)
Gr astrofisica II anno f materia (6 CFU)
- Astroparticle physics s (6 CFU)
- Stellar physics s (6 CFU)
- Astrophysics (6 CFU)
Liberi 9 CFU II anno f materia (9 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU)
- Biophysics for eflash therapy (9 CFU)
- Detection techniques: from lab to space (9 CFU)
- Bayesian inference in astronomy & astrophysics (6 CFU)
- Theory of nuclear interaction (9 CFU)
- Theory of nuclear interaction s (6 CFU)
- Teorie di campo statistiche (9 CFU)
- Teorie di campo statistiche s (6 CFU)
- Laboratory of instrumental seismology (9 CFU)
- Mechanics of geophysical fluids (9 CFU)
- Design of digital systems for radiation detection (6 CFU)
- The physics of every day life (6 CFU)
- Statistical analysis laboratory (6 CFU)
- Electronics and sensors (6 CFU)
- Physics of electronic devices (6 CFU)
- Compact star physics s (6 CFU)
- Accelerator physics s (6 CFU)
- Nuclear magnetic resonance (6 CFU)
- Nuclear reaction theory (6 CFU)
- Gravitation theory s (6 CFU)
- Exoplanetary systems (6 CFU)
- Montecarlo methods in experimental physics (6 CFU)
- Topological quantum field theory (6 CFU)
- Astroparticle physics (9 CFU)
- Statistical data analysis (9 CFU)
- Dosimetry (6 CFU)
- Hadron collider physics (9 CFU)
- Nuclear physics (9 CFU)
- Stellar physics (9 CFU)
- Advanced quantum field theory (9 CFU)
- Numerical methods in theoretical physics (9 CFU)
- Astrophysical processes (9 CFU)
- Nuclear reactions of astrophysical interest (9 CFU)
- General relativity (9 CFU)
- Chemical physics of molecules (9 CFU)
- Gravitation theory (9 CFU)
- Biophysics (6 CFU)
- Cosmology of the early universe (9 CFU)
- Nuclear reaction theory (9 CFU)
- Compact star physics (9 CFU)
- Group theory (6 CFU)
- Particle physics (9 CFU)
- Fundamental interactions (9 CFU)
- Experimental methods for astroparticle physics (9 CFU)
- Experimental methods for astroparticle physics s (6 CFU)
- Physics of cosmic diffuse media (6 CFU)
- Computational physics laboratory (9 CFU)
- Multimessenger physics laboratory (9 CFU)
- Quantum fields and topology (6 CFU)
- Signal processing for physics (6 CFU)
- Nonperturbative approaches to quantum field theories (9 CFU)
- Astrophysical black holes (6 CFU)
- Computing methods for experimental physics and data analysis (9 CFU)
- Introduction to bayesian probability theory (6 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU)
- Extragalactic astrophysics and cosmology (9 CFU)
- Condensed matter physics (9 CFU)
- Hadron collider physics s (6 CFU)
- Particle physics s (6 CFU)
- Computational physics laboratory s (6 CFU)
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Recent highlights in fundamental interactions (3 CFU)
- Instrumentation for fundamental interactions physics (9 CFU)
- Spectroscopy and microscopy of nanomaterials (6 CFU)
- Physics for cultural heritage (9 CFU)
- Elements of physiology, physiopathology and diagnostics (6 CFU)
Fisica medica
Required
- Molecular imaging (6 CFU) - Secondo ciclo semestrale
- Medical physics (9 CFU) - Primo ciclo semestrale
- Medical physics laboratory b (15 CFU) - Ciclo annuale unico
Gr astro i anno f medica (6 CFU)
- Astroparticle physics s (6 CFU) - Secondo ciclo semestrale
- Stellar physics s (6 CFU) - Secondo ciclo semestrale
- Astrophysics (6 CFU) - Secondo ciclo semestrale
Gr fmed 18CFU i anno f medica (18 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU) - Secondo ciclo semestrale
- Biophysics for eflash therapy (9 CFU) - Secondo ciclo semestrale
- Design of digital systems for radiation detection (6 CFU) - Secondo ciclo semestrale
- Statistical analysis laboratory (6 CFU) - Primo ciclo semestrale
- Accelerator physics s (6 CFU) - Secondo ciclo semestrale
- Nuclear magnetic resonance (6 CFU) - Secondo ciclo semestrale
- Montecarlo methods in experimental physics (6 CFU) - Secondo ciclo semestrale
- Statistical data analysis (9 CFU) - Primo ciclo semestrale
- Dosimetry (6 CFU) - Secondo ciclo semestrale
- Nuclear physics (9 CFU) - Primo ciclo semestrale
- Fundamentals of light matter interaction (9 CFU) - Primo ciclo semestrale
- Fundamental interactions (9 CFU) - Primo ciclo semestrale
- Computational physics laboratory (9 CFU) - Ciclo annuale unico
- Signal processing for physics (6 CFU)
- Computing methods for experimental physics and data analysis (9 CFU) - Ciclo annuale unico
- Computational physics laboratory s (6 CFU) - Primo ciclo semestrale
- Cell biophysics (6 CFU)
- Physics of biosystems (9 CFU) - Primo ciclo semestrale
- Introduction to molecular biophysics (6 CFU) - Primo ciclo semestrale
- Elements of physiology, physiopathology and diagnostics (6 CFU) - Primo ciclo semestrale
Gr microfisico i anno f medica (6 CFU)
- Neuroengineering (6 CFU) - Secondo ciclo semestrale
- Microbiorobotics (6 CFU) - Secondo ciclo semestrale
Gr teorica i anno f medica (9 CFU)
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Quantum field theory (9 CFU) - Primo ciclo semestrale
- Advanced quantum field theory (9 CFU) - Secondo ciclo semestrale
- General relativity (9 CFU) - Primo ciclo semestrale
Required
- Final exam (45 CFU)
Liberi II anno f medica (6 CFU)
- Computer science with laboratory (6 CFU)
- Introduction to the physics of controlled nuclear fusion (6 CFU)
- Design of digital systems for radiation detection (6 CFU)
- The physics of every day life (6 CFU)
- Statistical analysis laboratory (6 CFU)
- Astroparticle physics s (6 CFU)
- Electronics and sensors (6 CFU)
- Physics of electronic devices (6 CFU)
- Compact star physics s (6 CFU)
- Stellar physics s (6 CFU)
- Accelerator physics s (6 CFU)
- Nuclear magnetic resonance (6 CFU)
- Gravitation theory s (6 CFU)
- Exoplanetary systems (6 CFU)
- Montecarlo methods in experimental physics (6 CFU)
- Topological quantum field theory (6 CFU)
- Dosimetry (6 CFU)
- Cosmology of the early universe s (6 CFU)
- Group theory (6 CFU)
- Experimental methods for astroparticle physics s (6 CFU)
- New materials (6 CFU)
- Electrodynamics of continuous media (6 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU)
- Astrophysics (6 CFU)
- Particle physics s (6 CFU)
- Computational physics laboratory s (6 CFU)
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Optic foundations (6 CFU)
- Elements of physiology, physiopathology and diagnostics (6 CFU)
Fisica teorica
Required
- Quantum field theory (9 CFU) - Primo ciclo semestrale
- Advanced quantum field theory (9 CFU) - Secondo ciclo semestrale
Astrofisica i anno f teor (6 CFU)
- Astroparticle physics s (6 CFU) - Secondo ciclo semestrale
- Stellar physics s (6 CFU) - Secondo ciclo semestrale
- Cosmology of the early universe s (6 CFU) - Secondo ciclo semestrale
- Astrophysics (6 CFU) - Secondo ciclo semestrale
Laboratori i anno f teor (9 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU) - Secondo ciclo semestrale
- Statistical data analysis (9 CFU) - Primo ciclo semestrale
- Computational physics laboratory (9 CFU) - Ciclo annuale unico
- Fundamental interactions laboratory s (9 CFU) - Primo ciclo semestrale
Microfisica i anno f teor (9 CFU)
- Solid state physics (9 CFU) - Primo ciclo semestrale
- Nuclear physics (9 CFU) - Primo ciclo semestrale
- Complex systems (9 CFU) - Primo ciclo semestrale
- Fundamentals of light matter interaction (9 CFU) - Primo ciclo semestrale
- Fundamental interactions (9 CFU) - Primo ciclo semestrale
- Plasma physics (9 CFU) - Primo ciclo semestrale
- Condensed matter physics (9 CFU) - Secondo ciclo semestrale
Liberi 15 CFU i anno f teor (15 CFU) (15 CFU)
- Detection techniques: from lab to space (9 CFU) - Secondo ciclo semestrale
- Astrophysics and multimessenger laboratory (12 CFU) - Ciclo annuale unico
- Theory of nuclear interaction (9 CFU)
- Theory of nuclear interaction s (6 CFU) - Secondo ciclo semestrale
- Teorie di campo statistiche (9 CFU)
- Teorie di campo statistiche s (6 CFU)
- Computer science with laboratory (6 CFU)
- The physics of every day life (6 CFU) - Primo ciclo semestrale
- Statistical analysis laboratory (6 CFU) - Primo ciclo semestrale
- Graphics and animation with python (3 CFU) - Secondo ciclo semestrale
- Electronics and sensors (6 CFU) - Secondo ciclo semestrale
- Compact star physics s (6 CFU)
- Accelerator physics s (6 CFU) - Secondo ciclo semestrale
- Models for complex systems (6 CFU)
- Gravitation theory s (6 CFU) - Secondo ciclo semestrale
- Exoplanetary systems (6 CFU) - Secondo ciclo semestrale
- Topological quantum field theory (6 CFU)
- Astroparticle physics (9 CFU) - Secondo ciclo semestrale
- Quantum chromodynamics (9 CFU) - Secondo ciclo semestrale
- Dosimetry (6 CFU) - Secondo ciclo semestrale
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Stellar physics (9 CFU) - Secondo ciclo semestrale
- Numerical methods in theoretical physics (9 CFU)
- Atom optics (9 CFU) - Secondo ciclo semestrale
- Nuclear reactions of astrophysical interest (9 CFU)
- General relativity (9 CFU) - Primo ciclo semestrale
- Cosmology of the early universe (9 CFU) - Secondo ciclo semestrale
- Nuclear reaction theory (9 CFU)
- Compact star physics (9 CFU)
- Complex systems - neural dynamics (9 CFU) - Secondo ciclo semestrale
- Particle physics (9 CFU) - Secondo ciclo semestrale
- Experimental methods for astroparticle physics (9 CFU) - Primo ciclo semestrale
- Experimental methods for astroparticle physics s (6 CFU) - Primo ciclo semestrale
- Disordered systems out of equilibrium (9 CFU) - Primo ciclo semestrale
- Nonlinear dynamics (9 CFU) - Secondo ciclo semestrale
- Fundamental experiments in elementary particles physics (3 CFU)
- Multimessenger physics laboratory (9 CFU)
- Quantum fields and topology (6 CFU)
- Quantum optics and plasma physics (9 CFU) - Secondo ciclo semestrale
- Kinetic theory of plasmas (6 CFU)
- Electrodynamics of continuous media (6 CFU)
- Nonperturbative approaches to quantum field theories (9 CFU) - Primo ciclo semestrale
- Astrophysical black holes (6 CFU)
- Computing methods for experimental physics and data analysis (9 CFU) - Ciclo annuale unico
- Introduction to bayesian probability theory (6 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU) - Ciclo annuale unico
- Extragalactic astrophysics and cosmology (9 CFU) - Secondo ciclo semestrale
- Hadron collider physics s (6 CFU) - Secondo ciclo semestrale
- Computational physics laboratory s (6 CFU) - Primo ciclo semestrale
- Large scale physical oceanography (9 CFU) - Secondo ciclo semestrale
- Quantum computing and technologies (9 CFU) - Primo ciclo semestrale
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Recent highlights in fundamental interactions (3 CFU)
- Instrumentation for fundamental interactions physics (9 CFU) - Secondo ciclo semestrale
- Physics of matter and nanotechnology laboratory s (9 CFU) - Primo ciclo semestrale
- Physics for cultural heritage (9 CFU) - Primo ciclo semestrale
- Optic foundations (6 CFU) - Secondo ciclo semestrale
- Quantum thermodynamics (6 CFU) - Secondo ciclo semestrale
Required
- Final exam (45 CFU)
Affini e integrative II anno f teor (18 CFU)
- Theory of nuclear interaction (9 CFU)
- Theory of nuclear interaction s (6 CFU)
- Teorie di campo statistiche (9 CFU)
- Teorie di campo statistiche s (6 CFU)
- Gravitation theory s (6 CFU)
- Topological quantum field theory (6 CFU)
- Quantum chromodynamics (9 CFU)
- Statistical physics (9 CFU)
- Numerical methods in theoretical physics (9 CFU)
- General relativity (9 CFU)
- Gravitation theory (9 CFU)
- Quantum fields and topology (6 CFU)
- Nonperturbative approaches to quantum field theories (9 CFU)
Generale
Gr 01 i anno generale (9 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU) - Secondo ciclo semestrale
- Laboratory of instrumental seismology (9 CFU) - Secondo ciclo semestrale
- Statistical data analysis (9 CFU) - Primo ciclo semestrale
- Computational physics laboratory (9 CFU) - Ciclo annuale unico
- Signal processing for physics (6 CFU)
- Computing methods for experimental physics and data analysis (9 CFU) - Ciclo annuale unico
- Physics of matter and nanotechnology laboratory s (9 CFU) - Primo ciclo semestrale
Gr 02 i anno generale (9 CFU)
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Quantum field theory (9 CFU) - Primo ciclo semestrale
- General relativity (9 CFU) - Primo ciclo semestrale
Gr 03 e 04 i anno generale (9 CFU)
- Flexible and nano-electronics (9 CFU) - Secondo ciclo semestrale
- Fluid dynamics (6 CFU) - Primo ciclo semestrale
- Geophysical instrumentation and geophysical potential fields (6 CFU) - Primo ciclo semestrale
- Rock physics (6 CFU) - Primo ciclo semestrale
- Solid state physics (9 CFU) - Primo ciclo semestrale
- Nuclear physics (9 CFU) - Primo ciclo semestrale
- Complex systems (9 CFU) - Primo ciclo semestrale
- Fundamentals of light matter interaction (9 CFU) - Primo ciclo semestrale
- Fundamental interactions (9 CFU) - Primo ciclo semestrale
- Disordered systems out of equilibrium (9 CFU) - Primo ciclo semestrale
- Condensed matter physics (9 CFU) - Secondo ciclo semestrale
- Quantum computing and technologies (9 CFU) - Primo ciclo semestrale
- Physics of biosystems (9 CFU) - Primo ciclo semestrale
Gr 05 i anno generale (6 CFU)
- Astroparticle physics s (6 CFU) - Secondo ciclo semestrale
- Stellar physics s (6 CFU) - Secondo ciclo semestrale
- Cosmology of the early universe s (6 CFU) - Secondo ciclo semestrale
- Astrophysics (6 CFU) - Secondo ciclo semestrale
Gr 06 i anno generale (9 CFU)
- Mechanics of geophysical fluids (9 CFU) - Secondo ciclo semestrale
- Nuclear reactions of astrophysical interest (9 CFU)
- Quantum optics and plasma physics (9 CFU) - Secondo ciclo semestrale
Required
- Final exam (45 CFU)
Gr fis II anno generale (21 CFU)
- 3d and 4d nanomaterials and devices (9 CFU)
- Detection techniques: from lab to space (9 CFU)
- Introduction to the physics of controlled nuclear fusion (6 CFU)
- The physics of every day life (6 CFU)
- Quantum biology (9 CFU)
- Statistical analysis laboratory (6 CFU)
- Graphics and animation with python (3 CFU)
- Photonics and materials (6 CFU)
- Group theory for material science (3 CFU)
- Physics and detectors of gravitational waves (9 CFU)
- Physics and detectors of gravitational waves s (6 CFU)
- Electronics and sensors (6 CFU)
- Physics of electronic devices (6 CFU)
- Compact star physics s (6 CFU)
- Physics of surfaces and interfaces (3 CFU)
- Accelerator physics s (6 CFU)
- Models for complex systems (6 CFU)
- Nuclear magnetic resonance (6 CFU)
- Gravitation theory s (6 CFU)
- Exoplanetary systems (6 CFU)
- Montecarlo methods in experimental physics (6 CFU)
- Topological quantum field theory (6 CFU)
- Solid state laser (3 CFU)
- Astroparticle physics (9 CFU)
- Dosimetry (6 CFU)
- Hadron collider physics (9 CFU)
- Physics of photonic devices (9 CFU)
- Stellar physics (9 CFU)
- Advanced quantum field theory (9 CFU)
- Atom optics (9 CFU)
- Astrophysical processes (9 CFU)
- Gravitation theory (9 CFU)
- Nuclear reaction theory (9 CFU)
- Compact star physics (9 CFU)
- Complex systems - neural dynamics (9 CFU)
- Group theory (6 CFU)
- Experimental methods for astroparticle physics (9 CFU)
- Experimental methods for astroparticle physics s (6 CFU)
- Discrete symmetries (6 CFU)
- Nonlinear dynamics (9 CFU)
- Multimessenger physics laboratory (9 CFU)
- Quantum fields and topology (6 CFU)
- Plasma physics (9 CFU)
- Nonperturbative approaches to quantum field theories (9 CFU)
- Astrophysical black holes (6 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU)
- Hadron collider physics s (6 CFU)
- Instrumentation for fundamental interactions physics (9 CFU)
- Imaging per la fisica bio-medica (9 CFU)
- Bio-systems lab (15 CFU)
- Nonperturbative appoaches to quantum field theories s (6 CFU)
- Physics of sound (6 CFU)
- Laboratorio di interazioni fondamentali s (9 CFU)
Interazioni fondamentali
Required
- Fundamental interactions (9 CFU) - Primo ciclo semestrale
- Fundamental interactions laboratory (15 CFU) - Primo ciclo semestrale
Gr if libera scelta i anno int fond (9 CFU)
- Physics and detectors of gravitational waves (9 CFU) - Secondo ciclo semestrale
- Physics and detectors of gravitational waves s (6 CFU) - Secondo ciclo semestrale
- Electronics and sensors (6 CFU) - Secondo ciclo semestrale
- Accelerator physics s (6 CFU) - Secondo ciclo semestrale
- Montecarlo methods in experimental physics (6 CFU) - Secondo ciclo semestrale
- Signal processing (6 CFU) - Primo ciclo semestrale
- Astroparticle physics (9 CFU) - Secondo ciclo semestrale
- Dosimetry (6 CFU) - Secondo ciclo semestrale
- Hadron collider physics (9 CFU) - Secondo ciclo semestrale
- Nuclear physics (9 CFU) - Primo ciclo semestrale
- Statistical physics (9 CFU) - Primo ciclo semestrale
- Advanced quantum field theory (9 CFU) - Secondo ciclo semestrale
- Accelerator physics (9 CFU) - Secondo ciclo semestrale
- Nuclear reactions of astrophysical interest (9 CFU)
- General relativity (9 CFU) - Primo ciclo semestrale
- Cosmology of the early universe (9 CFU) - Secondo ciclo semestrale
- Cosmology of the early universe s (6 CFU) - Secondo ciclo semestrale
- Fundamentals of light matter interaction (9 CFU) - Primo ciclo semestrale
- Experimental methods for astroparticle physics (9 CFU) - Primo ciclo semestrale
- Experimental methods for astroparticle physics s (6 CFU) - Primo ciclo semestrale
- Discrete symmetries (6 CFU) - Secondo ciclo semestrale
- Fundamental experiments in elementary particles physics (3 CFU)
- Computational physics laboratory (9 CFU) - Ciclo annuale unico
- Computing methods for experimental physics and data analysis (9 CFU) - Ciclo annuale unico
- Computing methods for experimental physics and data analysis s (6 CFU) - Ciclo annuale unico
- Astrophysics (6 CFU) - Secondo ciclo semestrale
- Particle physics s (6 CFU) - Secondo ciclo semestrale
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Recent highlights in fundamental interactions (3 CFU)
- Instrumentation for fundamental interactions physics (9 CFU) - Secondo ciclo semestrale
- Introduction to neutrino physics (3 CFU) - Primo ciclo semestrale
- Fundamental interactions laboratory s (9 CFU) - Primo ciclo semestrale
- Nuclear weapons, disarmament and nuclear proliferation (6 CFU) - Secondo ciclo semestrale
Gr if 1 i anno int fond (9 CFU)
- Quantum field theory (9 CFU) - Primo ciclo semestrale
Gr if 4 i anno int fond (9 CFU)
- Statistical data analysis (9 CFU) - Primo ciclo semestrale
Required
- Final exam (45 CFU)
Gr if 2 II anno int fond (6 CFU)
- Astroparticle physics s (6 CFU)
- Cosmology of the early universe s (6 CFU)
- Astrophysics (6 CFU)
Liberi II anno int fond (12 CFU)
- Flexible and nano-electronics (9 CFU)
- 3d and 4d nanomaterials and devices (9 CFU)
- Quantum technologies for fundamental interaction physics (9 CFU)
- Detection techniques: from lab to space (9 CFU)
- Astrophysics and multimessenger laboratory (12 CFU)
- Advanced technologies for ground-based astrophysics: from microwaves to visible light (6 CFU)
- Bayesian inference in astronomy & astrophysics (6 CFU)
- Theory of nuclear interaction (9 CFU)
- Theory of nuclear interaction s (6 CFU)
- Teorie di campo statistiche (9 CFU)
- Teorie di campo statistiche s (6 CFU)
- Quantum machine learning (3 CFU)
- Advanced technologies for ground based astrophysics (6 CFU)
- Introduction to the physics of controlled nuclear fusion (6 CFU)
- Design of digital systems for radiation detection (6 CFU)
- The physics of every day life (6 CFU)
- Statistical analysis laboratory (6 CFU)
- Graphics and animation with python (3 CFU)
- Physics and detectors of gravitational waves (9 CFU)
- Physics and detectors of gravitational waves s (6 CFU)
- Spectroscopy algorithms (3 CFU)
- Electronics and sensors (6 CFU)
- Physics of electronic devices (6 CFU)
- Experimental plasma physics (6 CFU)
- Compact star physics s (6 CFU)
- Physics of surfaces and interfaces (3 CFU)
- Stellar physics s (6 CFU)
- Accelerator physics s (6 CFU)
- Nuclear magnetic resonance (6 CFU)
- Nuclear reaction theory (6 CFU)
- Gravitation theory s (6 CFU)
- Exoplanetary systems (6 CFU)
- Montecarlo methods in experimental physics (6 CFU)
- Topological quantum field theory (6 CFU)
- Signal processing (6 CFU)
- Solid state laser (3 CFU)
- Astroparticle physics (9 CFU)
- Statistical data analysis (9 CFU)
- Biophysics (9 CFU)
- Quantum chromodynamics (9 CFU)
- Dosimetry (6 CFU)
- Hadron collider physics (9 CFU)
- Physics of photonic devices (9 CFU)
- Solid state physics (9 CFU)
- Nuclear physics (9 CFU)
- Statistical physics (9 CFU)
- Stellar physics (9 CFU)
- Quantum field theory (9 CFU)
- Advanced quantum field theory (9 CFU)
- Atom optics (9 CFU)
- Plasma physics a (6 CFU)
- Astrophysical processes (9 CFU)
- Nuclear reactions of astrophysical interest (9 CFU)
- General relativity (9 CFU)
- Complex systems (9 CFU)
- Gravitation theory (9 CFU)
- Cosmology of the early universe (9 CFU)
- Nuclear reaction theory (9 CFU)
- Compact star physics (9 CFU)
- Complex systems - neural dynamics (9 CFU)
- Group theory (6 CFU)
- Particle physics (9 CFU)
- Fundamentals of light matter interaction (9 CFU)
- Fundamental interactions (9 CFU)
- Experimental methods for astroparticle physics (9 CFU)
- Experimental methods for astroparticle physics s (6 CFU)
- Nonlinear dynamics (9 CFU)
- Fundamental experiments in elementary particles physics (3 CFU)
- Physics of cosmic diffuse media (6 CFU)
- Computational physics laboratory (9 CFU)
- Multimessenger physics laboratory (9 CFU)
- Quantum fields and topology (6 CFU)
- Signal processing for physics (6 CFU)
- New materials (6 CFU)
- Plasma physics (9 CFU)
- Quantum optics and plasma physics (9 CFU)
- Kinetic theory of plasmas (6 CFU)
- Laser-plasma accelerators (6 CFU) - Secondo ciclo semestrale
- Nonperturbative approaches to quantum field theories (9 CFU)
- Astrophysical black holes (6 CFU)
- Computing methods for experimental physics and data analysis (9 CFU)
- Computing methods for experimental physics and data analysis s (6 CFU)
- Condensed matter physics (9 CFU)
- Particle physics s (6 CFU)
- Computational physics laboratory s (6 CFU)
- Large scale physical oceanography (9 CFU)
- Quantum computing and technologies (9 CFU)
- Nuclear reactions of astrophysical relevance s (6 CFU)
- Recent highlights in fundamental interactions (3 CFU)
- Physics for cultural heritage (9 CFU)
- Particle dark matter (6 CFU)
- Elements of physiology, physiopathology and diagnostics (6 CFU)
Career opportunities
Graduates can find opportunities in various fields:
- Taking on responsibility for projects and structures in companies, the public sector and the health and environmental sector
- Working in the international field of applied research
- Carrying out research activities in domestic and foreign industries, laboratories and institutes
- Carrying out teaching activities and dissemination of scientific culture
- Pursuing a PhD programme in Italy or abroad
- Being admitted to the Specialty School in Medical Physics.
Enrolment
Content in ItalianPer iscriversi occorre essere in possesso:
- di un titolo di studio universitario riconosciuto idoneo dalla normativa vigente
- dei requisiti curriculari stabiliti dal regolamento del corso di studio
- dell’adeguata personale preparazione, accertata secondo le modalità definite nel regolamento del singolo corso di studio.