DateClassAssignmentDue date, 6am
Tue 14.04 Introduction
Advanced DFT for solids 1: fractional occupations, ensemble approach, exact functional properties, self-interaction correction, DFT+U and hybrids (slides) (video)(SL)
Homework 1
Thu 16.04 Advanced DFT for solids 2: Reminders about planewaves and Brillouin zone sampling. Pseudopotentials, PAW and other basis sets. Introduction to the lab 1 "Advanced Materials Properties". Forces and brief introduction to Density Functional Perturbation Theory. (slides) (video)(XG) Lab 1
Fri 17.04 Homework 1. Presentations from students. (video) Homework 2 Homework 1
Tue 21.04 Advanced DFT for solids 3: Iterative techniques. DFT treatment of spin and spin-orbit coupling. Magnetic properties of solids. Beyond DFT for solids 1: Quantum Monte Carlo. (slides) (Lab_vizualisation) (video)(XG)
Thu 23.04 Beyond DFT for solids 2: GW and Bethe-Salpeter equation, charged and neutral excitations. Optical properties (absorption, refraction). (slides) (video) (XG)
Fri 24.04 Phonons and phonon band structure. Transport properties: electron-phonon couplings (mobility, electrical conductivity, thermoelectricity, superconductivity). (slides) (video) (XG)
Tue 28.04 Post-HF methods for molecules and solids: configuration interaction, coupled cluster theory, FCIQMC, CAS, multireference methods. (slides) (video) (SL)
Second quantization. (slides) (video) (AZ)
Lab 1 brief report
Thu 30.04 Effective Hamiltonians: ALPS, OpenFermion,other condensed matter theory codes and methods. Lattice models of electron-electron interaction:2c2e, 3c4e, 4c4e models, onsite models, 1D extended Hubbard model,spontaneous symmetry breaking including lattice relaxation.
Vibronic couplings in molecular systems: Vibrationally resolved and Raman spectra for molecules, hopping transport of Frenkel excitions and polarons, Holstein Hamiltonian. (video) (AZ)
Homework 2
Thu 07.05 Atomistic thermodynamics. Surface phase diagrams. Polar surfaces and surface charge. (slides) (video) (SL)
Introduction to compuational package FHI-aims (slides) (video) (SL)
Lab 2
Fri 08.05 Defect formation and concentration at realistic conditions (temperature, pressure, and doping). Optical properties of defects. Charged defects and polarons. (slides) (video) (SL)
Tue 12.05 Molecular dynamics and statistical mechanics: Ensembles and thermostats, Monte Carlo sampling, kinetic Monte Carlo, metadynamics, replica exchange, thermodynamic integration. (slides) (video) (SL) Lab 2 (MD)
Tue 12.05 Seminar on Machine Learning in Quantum Chemical Space by Prof. Alexander Tkatchenko from University of Luxembourg. (video)
Thu 14.05 Progress reports (SL/AZ) Lab 1 final report
Fri 15.05 Photoexcited dynamics: Non-adiabatic excited state molecular dynamics, mixed quantum-classical algorithms, codes, modeling of spectroscopic observables, energy and charge transfer. (slides) (video) (ST) Homework 3
Tue 19.05 Machine-learned interatomic potentials. (slides) (video) (AS)
Thu 21.05 Exploring materials space: compressed sensing, tree regression, subgroup discovery. Overview of computational databases. (slides) (video) (SL) Lab 3
Fri 22.05 Mathematical foundations of computational chemistry. (slides) (video) (AS) Homework 3
Mon 25.05 Seminar on optical properties of van der Waals heterostructures from ab initio many-body theory by Prof. Caterina Cocchi from Carl von Ossietzky University of Oldenburg, Germany. (video)
Tue 26.05 Modeling of energy storage materials. (slides) (video) (DA) Lab 3b
Thu 28.05 Advisory on final projects
Fri 29.05 Advisory on final projects
Tue 02.06 Advisory on final projects
Thu 04.06 Presentation of final projects (30 min/student)
Fri 05.06 No class (final project reports are due) Final project

Blocks: Advanced Materials Modeling, Assessment period (final project)