Courses

Learn the basics of plasma, one of the fundamental states of matter, and the different types of models used to describe it, including fluid and kinetic.

This course discusses the state-of-the-art techniques to control or suppress magnetic instabilities in fusion plasmas.

The course aims at teaching the general ideas and experimental tecniques for the characterization of electrical discharges in gas mixtures and their use in material processing.

This course gives an introduction to both the physics and the engineering of a nuclear fusion reactor (both experimental and demonstrative) of tokamak type.

This course aims to teach the principles of plasma physics, including kinetic and fluid models, plasma-wave interaction, magnetohydrodynamics, and applications of plasmas.

This course was offered as part of the 2018 ANNETTE Summer School, in the Nuclear Technology (NT) track. The course's purpose is to migrate core nuclear competences from expertes to incoming professionals

Learn about plasma applications from nuclear fusion powering the sun, to making integrated circuits, to generating electricity.

This course aims to give students the skills to plan and to implement a suitable diagnostics to perform basic measurements on laboratory plasmas in the linear, magnetically confined device GyM (IFP-CNR), operating to study plasma turbulence.

The course aims at providing the students with an introduction to plasma physics and thermonuclear fusion.

This course introduces the necessary tools, and teaches the physics and technical aspects of state-of-the-art heating and diagnosing methods in nuclear fusion research.

This course provides a broad introduction to fusion physics and lays the foundation for other lecture courses in this field.

The aim of the course is to understand the role of the neutron in Physics and its importance in some of today's applications. In addition, the course aims to describe the physics principle on which the detection of neutrons is based

Advanced course on "Plasma physics & diagnostics" scheduled in the weeks 8-12 and 15-19 March 2021.

This course treats plasma-edge physics and the extreme material challenges in fusion energy.

This course treats a phenomenological description and a self-consistent MHD description of fusion plasmas and their confinement.

The course aims to train students in their experimental skills in plasma physics.

The objectives of the Advanced Course on Plasma Physics of the PhD in Fusion Science and Engineering are to provide the knowledge base of magnetic confinement nuclear fusion technology. Students enrolled in the PhD in Fusion Scienceand Engineering have heterogeneous backgrounds, and this course shall develop their competences in applied engineering including materials, design concepts, including numerical, modeling and experimental methodologies. Learning and understanding the main technological challenges of fusion devices is fundamental for researchers active in this field.

A course on knowledge of the physical principles underlying primary energy resources, their availability and possibility of use. Also includes energy transformations.

The objectives of the Advanced Course on Plasma Physics of the PhD in Fusion Science and Engineering are to provide the knowledge base of magnetic confinement nuclear fusion plasmas. Students enrolled in the PhD in Fusion Science and Engineering have heterogeneous backgrounds, and this course shall develop their competences in plasma physics covering the theoretical, numerical, modeling and experimental fields of plasma physics.

The course aims to provide students with the basic notions regarding the definitions and the fundamental results for a geometric and topological approach to the study of classical field theory, with particular emphasis on classical vortex dynamics, ideal magnetohydrodynamics and quantum hydrodynamics.

The aim of the course is to give students the skills to plan and to implement a suitable diagnostics to perform basic measurements on laboratory plasmas in linear device to be used to generate plasma.