School in Computational Condensed Matter Physics - From Atomistic Simulations to Universal Model Hamiltonians

School in Computational Condensed Matter Physics - From Atomistic Simulations to Universal Model Hamiltonians

ICTP Condensed Matter and Statistical Physics via YouTube Direct link

Introduction to Exact Diagonalization

34 of 37

34 of 37

Introduction to Exact Diagonalization

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School in Computational Condensed Matter Physics - From Atomistic Simulations to Universal Model Hamiltonians

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  1. 1 Blackboard Molecular Dynamics
  2. 2 Exploring Planetary Interiors with Molecular Dynamics
  3. 3 Preliminaries for DMRG: An Exact Diagonalization, Quantum Information
  4. 4 Matrix Product States and DMRG
  5. 5 Numerical Quantum Transport: Introduction to Numerics for Quantum Transport
  6. 6 Strong-coupling Impurity Solvers for Electron-phon Problems
  7. 7 Extended DMFT and GW+DMFT
  8. 8 Hybridization Expansion and Non-crossing Approximation
  9. 9 Foundation of Parallel Systems for High-Performance Computing
  10. 10 Efficient simulations of low-dimensional systems - Lecture 1
  11. 11 Efficient simulations of low-dimensional systems - Lecture 2
  12. 12 Modeling the Quantum Nature of Atomic Nuclei by Imaginary Time Path Integrals - Lecture 1
  13. 13 Representing and understanding patterns in materials and molecules - Lecture 3
  14. 14 Introduction to Monte Carlo Algorithms
  15. 15 Hard Disks: From Classical Mechanics to Statistical Mechanics
  16. 16 Stochastic Series Expansion Method for Simulations of Quantum Spins
  17. 17 Ground-state Projection of Quantum Spins in the Valence Bond Basis
  18. 18 Full Configuration Interaction Quantum Monte Carlo - Lecture 1
  19. 19 Full Configuration Interaction Quantum Monte Carlo - Lecture 2
  20. 20 Sampling and Integration: From Gaussians to Maxwell and Boltzmann
  21. 21 Classical Lattice Spin Models: Ising Model, XY Model
  22. 22 Systematic Finite-size Scaling Methods for Analyzing Critical Points
  23. 23 Out-of-Equilibrium Quantum Monte Carlo Simulation and Quantum Annealing
  24. 24 Full Configuration Interaction Quantum Monte Carlo - Lecture 3
  25. 25 Introduction to path-integral Monte Carlo in continuous space - Lecture 1
  26. 26 Introduction to path-integral Monte Carlo in continuous space - lecture 2
  27. 27 Simulating Strongly Correlated Systems with ALPS - Lecture 1
  28. 28 Excited States From Many Body Perturbation Theory
  29. 29 Total Energies From Many Body Perturbation Theory
  30. 30 Simulating correlated materials on quantum computers - Lecture 1
  31. 31 Simulating correlated materials on quantum computers - Lecture 3
  32. 32 Introduction to (Quantum) Complexity Theory
  33. 33 Tutorial: Scientific Python 1
  34. 34 Introduction to Exact Diagonalization
  35. 35 Exact Diagonalization: Symmetries, Dynamics
  36. 36 Reflecting on the P in HPC a Condensed Matter Physics Perspective
  37. 37 Exact Diagonalization: Applications

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