Concept

Électrodynamique quantique

Cours associés (30)

Le cours comporte deux parties. Les bases de la thermodynamique des équilibres et de la cinétique des réactions sont introduites dans l'une d'elles. Les premières notions de chimie quantique sur les é

PHYS-702: Advanced Quantum Field Theory

The course builds on the course QFT1 and QFT2 and develops in parallel to the course on Gauge Theories and the SM.

MICRO-420: Selected topics in advanced optics

This course proposes a selection of different facets of modern optics and photonics.

EE-348: Electroacoustics

Ce cours a pour objectif de former les étudiants de section Génie Electrique et Electronique à la conception de systèmes acoustiques, à l'aide d'un formalisme basé sur l'électrotechnique. A la fin du

PHYS-334: Atomic, molecular physics and optics

This course presents the fundamental physics of atoms and molecules, their structure and their interaction with electromagnetic fields.

PHYS-434: Physics of photonic semiconductor devices

Series of lectures covering the physics of quantum heterostructures, dielectric microcavities and photonic crystal cavities as well as the properties of the main light emitting devices that are light-

PHYS-635: Semiconductor photonics and quantum structures

This course gives an overview of the current trends in semiconductor nanophotonics, with an emphasis on quantum nanostructures and optical cavities. Different light-matter interaction regimes in cavit

PHYS-717: Simulations of Early Universe Magnetohydrodynamics

The course will cover some fundamentals of magnetohydrodynamics (MHD) theory with hands-on sessions to learn the basics of MHD simulations using the open-source Pencil Code (http://pencil-code.nordita

PHYS-753: Dynamics of astrophysical fluids and plasmas

The dynamics of ordinary matter in the Universe follows the laws of (magneto)hydrodynamics. In this course, the system of equations that describes astrophysical fluids will be discussed on the basis o

PHYS-411: Physics of atoms, nuclei and elementary particles

In this lecture, symmetry and conservation law are applied to derive wave functions for elementary particles. Relativistic wave functions are analysed and applied for massive and massless particles. D