Licence 3

En partenariat avec Sorbonne Université et les universités de Paris Cité et Paris-Saclay-Orsay, le département de physique accueille les étudiants au niveau de la troisième année de licence (après deux années de classes préparatoires ou universitaires).

The goal of this course is to introduce the main concepts and challenges of quantum computing, a new set of technologies and techniques that promise to solve hard computational problems.

 

a quantum circuit

Since the 80’s, laser cooling has enabled the production of sub-milliKelvin dilute atomic gases - which can be further cooled to the nanoKelvin regime.

The numerical resolution of fluid dynamics equations is becoming increasingly important in many aspects of scientific research. In this course, we will develop and analyze the methods used to solve the partial differential equations relevant to fluid dynamics (elliptic, parabolic and hyperbolic).

Fluid Flow

The lectures offer a statistical-physics perspective on active matter, which encompasses systems whose fundamental constituents dissipate energy to exert forces on the environment. This out-of-equilibrium microscopic drive endows active systems with properties unmatched in passive ones. From molecular motors to bacteria and animals, active agents are found at all scales in nature. Over the past twenty years, physicists and chemists have also engineered synthetic active systems in the lab, by motorizing particles whose sizes range from nanometers to centimeters, hence paving the way towards the engineering of active materials.

The lectures will rely on the modern tools of statistical mechanics, from stochastic calculus to field theoretical methods, using both theoretical models and experimental systems to illustrate the rich physics of active matter.

The aim of these seminars is to give a perspective about the role of fundamental science in solving societal problems and boosting industrial innovation. A vision on how quantum technologies are inspiring top-class physics research in the private sector will be the core of this teaching.

The objective of this course is to cover the background required to understand one major system in future quantumbased technologies in the solid state, namely localized spins of atoms embedded in a solid state matrix.

The main goal of this course is to provide an advanced view of the optical response of quantum materials. 

The goal of this course is to introduce the main methods in electronic structure theory, which is at the heart of our present capability of understanding, predicting, and engineering materials properties based on accurate in-silico solutions of the many-body Schrödinger equation for electrons and their coupling with the lattice/structural degrees of freedom.