The teaching is organized as follows:

Learning objectives

The Electromagnetism and Optics module aims to provide the tools for understanding electromagnetism and optics phenomena in classical physics, from basic physical principles to methodologies for applying physical laws to problem solving. At the end of the course the student will have to demonstrate: - have knowledge and understanding in applied contexts of the foundations that make up the functioning of a physical electromagnetic system; - have the ability to apply acquired knowledge and understanding to model aspects of an electromagnetic physical problem or parts of a device; - knowing how to interpret the physical meaning of a measurement acquired with optoelectronic instruments; - knowing how to broaden the knowledge necessary to explore electromagnetism topics autonomously.
The module Elements of Structure of Matter provides students with the basic elements of modern physics and fundamental knowledge about atomic and molecular structure, as well as the fundamental interactions that govern the behavior of matter, with a particular focus on the interaction of electromagnetic radiation with solid matter. The course concentrates on applying this knowledge to understand macroscopic properties (particularly mechanical, electronic, and optical properties), material characterization techniques, and material performance in various engineering applications. Students will acquire fundamental skills for the selection, design, and optimization of materials used in different industrial processes and for the creation of devices, sensors, and actuators.
By the end of the course, students will have acquired the following knowledge/skills:
Understanding of the fundamental concepts of atomic structure, molecular physics, and the laws governing interactions between particles.
Ability to comprehend and master the fundamental physical models for interpreting phenomena on an atomic, molecular, or solid-state physics scale.
Ability to analyze the crystal structures of materials and the relationships between structure, properties, and mechanical behavior.
Understanding of material properties, including thermal and electrical conductivity, magnetism, elasticity, ductility, and brittleness.
Knowledge of material characterization techniques, including electron microscopy, spectroscopic techniques, and thermal analysis.
Ability to apply the acquired knowledge to select and design materials for specific industrial applications.
Ability to evaluate environmental, economic, and social factors influencing material selection and the sustainability of engineering solutions.
Ability to document the environmental impact resulting from the use of one or more specific materials during the design of devices, sensors and actuators.