Contents:

  • Installation
  • Conventions of Heisenberg Model
  • Tutorial
    • Use TB2J with Wannier90
    • Use TB2J with Siesta
    • Use TB2J with OpenMX
    • Use TB2J with ABACUS
    • Computing Magnetocrystalline anisotropy energy (MAE)
    • Parameters for Magnetic Interaction Calculations
    • Averaging multiple parameters
    • The ligand spin problem: downfolding the Heisenberg Hamiltonian
    • Decompose the exchange into orbital contributions.
    • Symmetrization of the exchange parameters
    • The output of TB2J
  • Applications
  • TB2J_edit
  • Extending TB2J
  • Roadmap of TB2J
  • Ecosystem
  • Frequently asked questions.
  • Contributors
  • References
  • Development
  • Release Notes
TB2J
  • Tutorial
  • View page source

Tutorial

Contents:

  • Use TB2J with Wannier90
    • Step 0: Find the orbitals and energy range to be used in the Wannier Function Hamiltonian.
    • Step 1: Construct WF Hamiltonian from DFT.
    • Step 2: Run TB2J
    • Noncollinear calculation
  • Use TB2J with Siesta
    • Collinear calculation without SOC
    • Non-collinear calculation
  • Use TB2J with OpenMX
    • Install TB2J-OpenMX
    • running TB2J
  • Use TB2J with ABACUS
    • Collinear calculation without SOC
    • Non-collinear calculation with SOC
    • Parameters of abacus2J.py
  • Computing Magnetocrystalline anisotropy energy (MAE)
    • Advanced Usage
  • Parameters for Magnetic Interaction Calculations
    • Introduction
    • Common Parameters
    • Tool-Specific Parameters
  • Averaging multiple parameters
  • The ligand spin problem: downfolding the Heisenberg Hamiltonian
    • Usage:
  • Decompose the exchange into orbital contributions.
    • Decomposition in non-collinear mode
  • Symmetrization of the exchange parameters
  • The output of TB2J
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