The ETSF includes ten core nodes and seven associate nodes.


Density-functional theory and many-body-perturbation in the GW approximation: development and application to systems ranging from small molecules to bulk insulators, surfaces and thin films.

Time-dependent quantum phenomena, Quantum optimal control theory, Superconductivity, Non-collinear magnetism.

Development in MBPT (GW and BSE); applications of DFT (organic molecules and surfaces), TDDFT (nanostructures), and MBPT (wide band gap materials, systems with shallow d states, crystals with magnetic ordering).

Software development (MBPT, TDDFT and vibrational spectroscopies). Quantum Transport in nanotubes, and hybrid metal/organic nanosystems (spintronics). MBPT applied to high-k dielectrics and their interface with Si.

Quantum Transport, Development of new functionals, Non-equilibrium Green functions, Time dependent density functional theory, Spectral properties of molecules and solids, Photoemission.

Density Functional Theory and Many Body Perturbation Theory used as a powerful "theoretical microscope" to study the electronic and optical properties of materials, mainly surfaces and nanostructures at the atomic scale.

Development in MBPT (GW and beyond, Bethe-Salpeter equation) and TDDFT (functionals from MBPT). Non-linear response. Layered (Graphite-like) systems. Biomolecules.

Density-Functional Theory (DFT), Time-Dependent Density-Functional Theory (TDDFT), Many-Body Perturbation Theory (GW, BSE, vertex corrections), Optical and Energy Loss Spectroscopy at Surfaces and Interfaces, Nanowires, Nanodots, Systems of biological interest.

Quantum Transport, Developments of new functionals in TDDFT, density matrix approaches, excited state dynamics, Biophysics and Nanotubes.

Calculations of the electronic structure and total energy in nanostructures and novel materials; Simulation of electronic transport through nanostructures, including electron-electron effects; Analysis and development of functionals for time-dependent density-functional theory beyond the usual local-density approximation.

Calculations of the electronic properties of strongly correlated materials. Development in Dynamical Mean Field Theory (DMFT).

Theoretical description of nonequilibrium phenomena in many-body systems. Examples are molecular conduction and atoms, molecules and quantum dots exposed to short laser pulses. Development in non-equilibrium Green's function theory and TDDFT.

Organic semiconductors, metal alloys, and high temperature superconductors. Code development is mainly based on the all-electron full-potential linearized augmented planewave (LAPW) method.

Calculations of the electronic properties of nanoclusters. Biological systems.

(TD)DFT, MBPT, NEGF and QMC to address Photochemistry, Quantum Transport, BCS-Eliashberg Superconductivity, Magnetic phases and Magnons on Disordered systems, Nanostructures, 2D- and technological systems. O(N) methodological developments.
INPG SIMaP theory group, CNRS Néel MCMF theory, UJF DCM theory group, CEA DRFMC L_Sim LETI-MINATEC theory group, CNRS LP2MC QMC group, CNRS LPMCN Lyon theory.

Excited state electronic structure theory, X-ray spectroscopy, Optical response, Development of shared computer codes.

Time dependent density functional theory implementation, as well as a GW and Bethe Salpeter implementation for the projector augmented wave (PAW) method, which is particularly beneficial for heavier elements, where the construction of accurate pseudo potentials is often rather difficult (semi-core s, p and d states). Coupled cluster methods, including the development of an equation of motion coupled cluster code (EOM-CCSD) for solids. Vienna ab initio simulation package (VASP).