Introduction to astroparticle physics

Academic year 2025/2026
Lecturer Giovanni Losurdo

Examination procedure

Seminar

Examination procedure notes

The topic of the final seminar will be agreed upon by the student and the lecturer.

Prerequisites

The course is intended for third-year undergraduate students

Syllabus

Messengers of the Universe – General introduction to astroparticle physics. Scientific motivations and the experimental landscape.

Cosmic Rays: Particles from the Sky – Discovery and origin of cosmic rays. Energy spectrum, composition, direct and indirect detection techniques. Historical and current experiments.

Cosmology and the Microwave Background – Cosmic Microwave Background (CMB): from the observation by Penzias and Wilson to the Planck satellite measurements.

The Gamma-Ray Universe – Production of gamma rays in astrophysical sources. Emission mechanisms. Experiments.

Neutrinos from the Sun and Deep Space – Origin of solar, atmospheric, and extragalactic neutrinos. Detection techniques and key experiments. Supernova neutrinos.

Searching for Dark Matter – Astrophysical evidence for dark matter. Candidate particles. Experimental strategies: direct and indirect detection. Underground experiments.

Gravitational Waves: Listening to the Dark Universe – Gravitational wave interferometers, astrophysical sources, GW signals. Connections with high-energy astrophysics.

Multimessenger Astronomy: from SN1987A to GW170817 – Historical and recent cases of multimessenger observation. Coordination among particle, photon, and GW detectors. Impact on astrophysics, cosmology, nuclear physics, and fundamental physics.

Outlook – Future prospects in astroparticle physics: scientific challenges, upcoming experiments, and interdisciplinary connections.

Bibliographical references

A. De Angelis, M. Pimenta - Introduction to particle and astroparticle physics, Springer

M. Spurio - Particles and astrophyics, Springer

E. Roulet, F. Vissani - Neutrinos in physics and astrophysics, World Scientific

M. Maggiore - Gravitational Waves - Oxford