G. Sawatzky | The Explicit Role of Anion States in High-Valence Metal Oxides |

E. Koch | Mean-Field Theory: Hartree-Fock and BCS |

M. Foulkes | Tight-Binding Models and Coulomb Interaction for s, p, and d Electrons |

R. Scalettar | An Introduction to the Hubbard Hamiltonian |

R. Eder | Multiplets in Transition-Metal Ions and Introduction to Multiband Hubbard Models |

F. Manghi | Multi-Orbital Cluster Perturbation Theory for Transition-Metal Oxides |

E. Pavarini | Orbital Ordering |

A. Läuchli | Studying Continuous Symmetry Breaking with Exact Diagonalization |

A. Alavi | Introduction to Full Configuration Interaction Quantum Monte Carlo |

L. Reining | Linear Response and More: the Bethe-Salpeter Equation |

D. van der Marel | Optical Properties of Correlated Electrons |

J. van den Brink | Resonant Inelastic X-ray Scattering on Elementary Excitations |

H. Alloul | NMR in Correlated Electron Systems: Illustration on the Cuprates |

C. Hess | Introduction to Scanning Tunneling Spectroscopy of Correlated Materials |

P. Coleman | Heavy Fermions and the Kondo Lattice: A 21st Century Perspective |

K. Schönhammer | Spectroscopic Properties of Mixed-Valence Compounds in the Impurity Model |

E. Pavarini | Magnetism in Correlated Matter |

A. Nevidomskyy | The Kondo Model and Poor Man's Scaling |

T. Costi | Numerical Renormalization Group and Multi-Orbital Kondo Physics |

K. Ingersent | NRG with Bosons |

F. Mila | Frustrated Spin Systems |

V. Janiš | Introduction to Mean-Field Theory of Spin Glass Models |

R. Frésard | The Slave-Boson Approach to Correlated Fermions |

E. Koch | The Lanczos Method |

A. Mielke | The Hubbard Model and its Properties |

R. Eder | The Two-Dimensional Hubbard Model |

D. Sénéchal | Quantum Cluster Methods: CPT and CDMFT |

T. Maier | The Dynamical Cluster Approximation and its DCA^{+} Extension |

C. Franchini | Electronic Structure of Perovskites: Lessons from Hybrid Functionals |

D. Vollhardt | From Gutzwiller Wave Functions to Dynamical Mean-Field Theory Mott-transition |

G. Kotliar | Electronic Structure of Correlated Materials: Slave-Boson Methods and Dynamical Mean-Field Theory |

A. Georges | Dynamical Mean-Field Theory: Materials from an Atomic Viewpoint beyond the Landau Paradigm |

A. Lichtenstein | Development of the LDA_DMFT Approach |

T. Wehling | Projectors, Hubbard *U*, Charge Self-Consistency, and Double-Counting |

E. Pavarini | Linear Response Functions |

F. Assaad | Continuous-Time QMC Solvers for Electronic Systems in Fermionic and Bosonic Baths |

E. Koch | Quantum Cluster Methods |

M. Potthoff | Making Use of Self-Energy Functionals: The Variational Cluster Approximation |

K. Held | Dynamical Vertex Approximation |

W. Metzner | Functional Renormalization Group Approach to Interacting Fermi Systems: DMFT as a Booster Rocket |

M. Kollar | Correlated Electron Dynamics and Nonequilibrium Dynamical Mean-Field Theory |

J. Minár | Theoretical Description of ARPES: The One-Step Model |

M. Sing | Introduction to Photoemission Spectroscopy |

H. Tjeng | Challenges from Experiment: Correlation Effects and Electronic Dimer Formation in Ti_{2}O_{3} |

R. Jones | Density Functional Theory for Emergents |

E. Koch | Many-Electron States |

E. Pavarini | Magnetism: Models and Mechanisms |

R. Eder | The Variational Cluster Approximation |

A. Lichtenstein | Magnetism: From Stoner to Hubbard |

W. Krauth | Monte Carlo Methods with Application to Spin Systems |

S. Wessel | Monte Carlo Simulations of Quantum Spin Models |

J. Schnack | Quantum Theory of Molecular Magnetism |

B. Keimer | Recent Advances in Experimental Research on High-Temperature Superconductivity |

A. Tremblay | Strongly Correlated Superconductivity |

W. Pickett | Superconductivity: 2D Physics, Unknown Mechanisms, Current Puzzles |

R. Heid | Density Functional Perturbation Theory and Electron Phonon Coupling |

G. Ummarino | Eliashberg Theory |

D. Ceperley | Path Integral Methods for Continuum Quantum Systems |

S. Zhang | Auxiliary Field Quantum Monte Carlo for Correlated Electron Systems |

U. Schollwöck | DMRG: Ground States, Time Evolution, and Spectral Functions |

J. Eisert | Entanglement and Tensor Network States |

A. Lichtenstein | Correlated Electrons: Why we need models to understand real Materials |

D. Singh | Density Functional Theory and Applications to Transition Metal Oxides |

O. Andersen | NMTOs and their Wannier Functions |

M. Cococcioni | The LDA+U Approach: A Simple Hubbard Correction for Correlated Ground States |

J. Bünemann | The Gutzwiller Density Functional Theory |

E. Pavarini | Crystal-field Theory, Tight-binding Method, and Jahn-Teller Effect |

E. Koch | Exchange Mechanisms |

R. Eder | Multiplets in Transition Metal Ions |

O. Gunnarsson | Strongly Correlated Electrons: Estimates of Model Parameters |

R. Zeller | DFT-based Green Function Approach for Impurity Calculations |

F. Anders | The Kondo Effect |

R. Bulla | The Numerical Renormalization Group |

M. Jarrell | The Maximum Entropy Method |

A. Mishchenko | Stochastic Optimization for Analytical Continuation: When a priori Knowledge is Missing |

D. DiVincenzo | Introduction to Quantum Information |

N. Schuch | Entanglement in correlated quantum systems: A quantum information perspective |

D. Vollhardt | Dynamical Mean-Field Approach for Strongly Correlated Materials |

P. Blöchl | Theory and Practice of Density-Functional Theory |

F. Lechermann | Model Hamiltonians and Basic Techniques |

J. Kunes | Wannier Functions and Construction of Model Hamiltonians |

M. Kollar | Introduction to Dynamical Mean-Field Theory |

E. Pavarini | The LDA+DMFT Approach |

F. Aryasetiawan | The Constrained RPA Method for Calculating Hubbard U from First-Principles |

E. Koch | The Lanczos Method |

N. Blümer | Hirsch-Fye Quantum Monte Carlo Method for Dynamical Mean-Field Theory |

P. Werner | Continuous-Time Impurity Solvers |

A. Lichtenstein | Non-Local Correlations in Solids: Beyond DMFT |

H. Ebert | Multiple-Scattering Formalism for Correlated Systems: A KKR-DMFT Approach |

K. Held | Hedin Equations, GW, GW+DMFT, and all That |

H. Tjeng | Challenges from Experiment |