Laurea Magistrale in Fisica

Curriculum: Specialist Curriculum

Compulsory Activity

• Classical Electrodynamics
• English Proficiency B2
• Informatics Ability
• Final Exam
• Mandatory Training Internship

Caratterizzanti

• Data Structures and Algorithms of Physics of Data
• Electronics 1
• Electronics Laboratory
• Environmental Physics
• Health Physics
• Imaging Techniques for Biomedical Applications
• Optical Analysis for Cultural Heritages
• Accelerator Physics 1
• Dosimetry
• Electronics 2
• Elements of Superconductivity and Physics of High Field Magnets
• Modelling Applications for Environmental and Cultural Heritage Physics
• Radiobiology

Theory and Fundamentals of Physics

• Many Body Theory 1
• Many Body Theory 2
• Mathematical Methods in Physics: Differential Equations 1
• Mathematical Methods in Physics: Geometry and Group Theory 1
• Mathematical Methods in Physics: Geometry and Group Theory 2
• Quantum Field Theory 2
• Statistical Mechanics 1
• Statistical Quantum Field Theory 1
• Theory of Quantum Open Systems
• Gravity and Superstrings 1
• Quantum Field Theory 1
• Statistical Physics of Complex Systems
• Theory of Fundamental Interactions 1

Microphysics and Structure of Matter Field

• Accelerator Physics Laboratory
• Applied Superconductivity Laboratory
• Astroparticle Physics
• Coherence and Control of Quantum System
• Electronic Structure
• Electroweak Interactions
• Interaction and Detection of Nuclear Radiation
• Machine Learning
• Magnetic Properties and Fine Analysis of Low-Dimensional Matter
• Optics Laboratory and Application
• Particle Physics
• Physics Protein 1
• Probability and Statistics
• Quantum Optics
• Quantum Optics Laboratory
• Quantum Theory of Matter 2
• Semiconductor Physics
• Surface Physics 1
• Advanced Statistical Physics
• Laser Physics Laboratory 1
• Nanoscale Solid State Physics
• Nuclear Electronics
• Nuclear Physics
• Nuclear Spectroscopy Laboratory
• Optics 1
• Particle Detectors
• Physics of Electronic Devices
• Physics of Solids 1
• Plasma Physics and Controlled Fusion
• Plasma Physics Laboratory 1
• Quantum Information Theory
• Radioactivity

Astrophysics, Geophysics and Space Science Field

• Astrophysical Fluid Dynamics
• General Astrophysics 1
• Introduction to Continuum Physics
• Nuclear Relativistic Astrophysics 1
• Physics of the Hydrosphere and the Cryosphere
• Radio Astronomy 1
• Atmospheric Physics
• Cosmology 1
• Dynamics of Galaxies
• Extragalactic Astrophysics
• General Astrophysics 2
• Laboratory of Data Modelling
• Tectonophysics

Integrativa Affini

• Advanced Gravitational Physics
• Algebraic Topology
• Atomic Physics
• Biophysics
• Cosmology 2
• Data Analytics, Forward and Inverse Modeling: Geophysical and Environmental Fluid Dynamics
• Differential Geometry
• Digital Electronics
• Foundations of Energy Production
• History of Physics
• Instrumentation Applied to Medicine
• Introduction to Astrophysics
• Introduction to General Relativity
• Methods of Data Analysis
• Nuclear Relativistic Astrophysics 2
• Particle Physics Laboratory 1
• Perturbation Theory of Hamiltonian Systems
• Physics Laboratory of Climatology and Atmospheric Physics
• Preparation of Didactical Experiences 1
• Quantum Computing
• Simulation of Condensed Matter and Biosystems
• Theory of Fundamental Interactions 2
• Thin Film and Nanostructures Characterization
• Computational Physics Laboratory
• Condensed Matter Physics Laboratory 2
• Deep Learning with Applications
• Dynamical Systems 1
• Earth Physics Laboratory
• Environmental Physics Laboratory
• Foundations in Electron Microscopy (EM) and Its Related Spectroscopies
• Foundations of Physics
• Foundations of Quantum Mechanics
• Geometry 2
• Gravity and Superstrings 2
• Health Physics Laboratory
• Introduction to Health and Medical Physics
• Laboratory of Space Instrumentation (1)
• Liquid-State and Soft-Matter Physics
• Mathematical Analysis 4
• Nanoparticle Physics
• Nonlinear Optics and Quantum Photonics
• Nuclear Magnetic Resonance Techniques: Physics Principles and Applications
• Numerical Simulation Laboratory
• Numerical Tecniques for Photorealistic Image Generation
• Particle Detectors Laboratory Instrumentation
• Phenomenology of the Standard Model of Particle Physics
• Physics of Medical Imaging
• Preparation of Didactical Experiences 2
• Quantum Walks
• Radiative Processes in Astrophysics
• Radio Astronomy 2
• Statistical Quantum Field Theory 2
• Stochastic Processes

Curriculum: Multi-Sector Curriculum

Compulsory activity

• Classical Electrodynamics
• English Proficiency B2
• Informatics Ability
• Final Exam

Caratterizzanti

• Electronics 1
• Electronics Laboratory
• Environmental Physics
• Health Physics
• Imaging Techniques for Biomedical Applications
• Optical Analysis for Cultural Heritages
• Accelerator Physics 1
• Dosimetry
• Electronics 2
• Elements of Superconductivity and Physics of High Field Magnets
• Modelling Applications for Environmental and Cultural Heritage Physics
• Radiobiology
• Theory and Fundamentals of Physics
• History of Physics
• Preparation of Didactical Experiences 1
• Preparation of Didactical Experiences 2
• Microphysics and Structure of Matter
• Accelerator Physics Laboratory
• Applied Superconductivity Laboratory
• Astroparticle Physics
• Coherence and Control of Quantum System
• Electronic Structure
• Electroweak Interactions
• Interaction and Detection of Nuclear Radiation
• Magnetic Properties and Fine Analysis of Low-Dimensional Matter
• Optics Laboratory and Application
• Particle Physics
• Physics Protein 1
• Quantum Optics
• Quantum Optics Laboratory
• Quantum Theory of Matter 2
• Semiconductor Physics
• Surface Physics 1
• Advanced Statistical Physics
• Laser Physics Laboratory 1
• Nanoscale Solid State Physics
• Nuclear Electronics
• Nuclear Physics
• Nuclear Spectroscopy Laboratory
• Optics 1
• Particle Detectors
• Physics of Electronic Devices
• Physics of Solids 1
• Plasma Physics and Controlled Fusion
• Plasma Physics Laboratory 1
• Quantum Information Theory
• Radioactivity

Astrophysics, Geophysics and Space Science

• Astrophysical Fluid Dynamics
• General Astrophysics 1
• Introduction to Continuum Physics
• Nuclear Relativistic Astrophysics 1
• Physics of the Hydrosphere and the Cryosphere
• Radio Astronomy 1
• Atmospheric Physics
• Cosmology 1
• Dynamics of Galaxies
• Extragalactic Astrophysics
• General Astrophysics 2
• Tectonophysics
• AFFINI E INTEGRATIVE
• Advanced Gravitational Physics
• Algebraic Topology
• Atomic Physics
• Biophysics
• Cosmology 2
• Data Analytics, Forward and Inverse Modeling: Geophysical and Environmental Fluid Dynamics
• Data Structures and Algorithms of Physics of Data
• Differential Geometry
• Digital Electronics
• Foundations of Energy Production
• Instrumentation Applied to Medicine
• Introduction to Astrophysics
• Introduction to General Relativity
• Machine Learning
• Many Body Theory 1
• Many Body Theory 2
• Mathematical Methods in Physics: Differential Equations 1
• Mathematical Methods in Physics: Geometry and Group Theory 1
• Mathematical Methods in Physics: Geometry and Group Theory 2
• Methods of Data Analysis
• Nuclear Relativistic Astrophysics 2
• Particle Physics Laboratory 1
• Perturbation Theory of Hamiltonian Systems
• Physics Laboratory of Climatology and Atmospheric Physics
• Probability and Statistics
• Quantum Computing
• Quantum Field Theory 2
• Simulation of Condensed Matter and Biosystems
• Statistical Mechanics 1
• Statistical Quantum Field Theory 1
• Theory of Fundamental Interactions 2
• Theory of Quantum Open Systems
• Thin Film and Nanostructures Characterization
• Computational Physics Laboratory
• Condensed Matter Physics Laboratory 2
• Deep Learning with Applications
• Dynamical Systems 1
• Earth Physics Laboratory
• Environmental Physics Laboratory
• Foundations in Electron Microscopy (EM) and Its Related Spectroscopies
• Foundations of Physics
• Foundations of Quantum Mechanics
• Geometry 2
• Gravity and Superstrings 1
• Gravity and Superstrings 2
• Health Physics Laboratory
• Introduction to Health and Medical Physics
• Laboratory of Data Modelling
• Laboratory of Space Instrumentation (1)
• Liquid-State and Soft-Matter Physics
• Mathematical Analysis 4
• Nanoparticle Physics
• Nonlinear Optics and Quantum Photonics
• Nuclear Magnetic Resonance Techniques: Physics Principles and Applications
• Numerical Simulation Laboratory
• Numerical Tecniques for Photorealistic Image Generation
• Particle Detectors Laboratory Instrumentation
• Phenomenology of the Standard Model of Particle Physics
• Physics of Medical Imaging
• Quantum Field Theory 1
• Quantum Walks
• Radiative Processes in Astrophysics
• Radio Astronomy 2
• Statistical Physics of Complex Systems
• Statistical Quantum Field Theory 2
• Stochastic Processes
• Theory of Fundamental Interactions 1

Más concretamente, el programa está diseñado con los siguientes objetivos:

• Proporcionar una base sólida de conocimientos sobre el dominio experimental-aplicativo, la teoría y los fundamentos de la física, microfísica, estructura de la materia, astrofísica/geofísica/ciencia espacial.
• Preparar graduados que sean flexibles y tengan una gran aptitud para la resolución de problemas.
• Preparar egresados que sean capaces de describir los fenómenos naturales de manera estrictamente científica, con un enfoque matemático y estadístico, así como trabajar con un alto grado de autonomía, asumiendo responsabilidades en los proyectos, incluso en calidad de gestor y directivo.
• Proporcionar herramientas para la comunicación y divulgación científica de alto nivel.
• Proporcionar a los egresados un conocimiento sólido de los contenidos y metodologías requeridas para la docencia.

Los graduados normalmente ejercerán su profesión en la industria y en organismos públicos y privados en estructuras tales como:

• Centros de investigación y laboratorios.
• Hospitales e instalaciones sanitarias que utilizan técnicas de diagnóstico, terapia y protección radiológica.
• Observatorios astronómicos
• Museos y otros centros dedicados a la divulgación científica
• Bancos y compañías de seguros.
• Estructuras dedicadas al desarrollo de modelos matemático-estadísticos de fenómenos
• Estructuras dedicadas al uso y desarrollo de sistemas e instrumentación complejos
• Estructuras activas en la restauración de bienes artísticos y en la protección de bienes medioambientales.
• Centrales eléctricas (incluidas, por ejemplo, centrales nucleares)
• Estructuras para la adquisición y procesamiento de datos.

Los titulados que dispongan de un número suficiente de créditos en grupos de sectores adecuados podrán, según exige la legislación vigente, participar en las pruebas de acceso a cursos de formación para la enseñanza secundaria.

Los graduados interesados en oportunidades que requieran mayor capacitación continuarán sus estudios en doctorados de investigación o escuelas de especialización.