TURBOMOLE 8.0 manual
Program package for ab initio electronic structure calculations. This is the user manual for TURBOMOLE version 8.0 — searchable, with example inputs and tools to set up your own calculation: the structure tool converts and symmetry-checks your geometry, the interactive input generator then builds the matching input file.
Search
Full-text and keyword search — try $dft, ricc2, cosmo.
Keyword index
Every control-file keyword, A–Z.
Examples
Ready-to-run input sets for typical calculations.
Structure tool
Convert XYZ/PDB/POSCAR to coord, view in 3D, detect the point group.
Input generator
Build a control file step by step.
riper tools
Toolbox for periodic DFT calculations with riper.
Preparing a calculation? Work left to right:
start with the Structure tool to turn your
geometry into a TURBOMOLE coord file (and check or clean up its
symmetry), then move to the Input generator
to build the matching control file — the structure and its
point group carry over automatically.
Table of contents
- 1 Preface and General Information
- 2 Installation of Turbomole
- 3 How to Run Turbomole
- 4 Preparing your input file with Define
-
5
Calculation of Molecular Structure and Ab Initio Molecular Dynamics
- 5.1 Structure Optimizations using the Jobex Script
- 5.2 Program Statpt
- 5.3 Program Relax
- 5.4 Force Field Calculations
- 5.5 Semiempirical Extended Tight-Binding Calculations
- 5.6 Molecular Dynamics Calculations
- 5.7 Global Structure Optimization – The DoDo Program
- 5.8 Counterpoise-Corrections using the Jobbsse Script
- 5.9 Reaction Path Optimization
-
6
Hartree–Fock and DFT Calculations for Molecular Systems
- Prerequisites
- How to Perform a Calculation
- Special Options for Open-Shell Systems
- 6.1 Background Theory
- 6.2 Robust SCF solver: Augmented Roothaan-Hall Algorithm
- 6.3 Exchange-Correlation Functionals Available
- 6.4 Restricted Open-Shell Hartree–Fock
- 6.5 Relativistic effects
- 6.6 Finite magnetic fields
- 6.7 Canonical orthogonalization
- 6.8 Dispersion Correction for DFT Calculations
- Density-based dispersion corrections of non-local vdW-DF type
- 6.9 Energy Decomposition Analysis (EDA)
- 7 DFT Calculations for Periodic Systems
- 8 Hartree–Fock and DFT Response Calculations: Stability, Dynamic Response Properties, and Excited States
-
9
Second-order Møller–Plesset Perturbation Theory
- Preliminary note
- 9.1 Functionalities of mpgrad, and ricc2, and pnoccsd
- 9.2 Some Theory
- 9.3 How to Prepare and Perform MP2 Calculations
- 9.4 General Comments on MP2 Calculations, Practical Hints
- 9.5 RI-MP2-F12 Calculations
- 9.6 Laplace-transformed SOS-RI-MP2 with cal O(cal N^4) scaling costs
- 9.7 COSMO-MP2
- 9.8 Low-scaling MP2 and MP2-F12 calculations with a hybrid OSV-PNO approximation
-
10
Second-Order Approximate Coupled-Cluster (CC2) Calculations
- Prerequisites
- How To Perform a Calculation
- How to quote
- 10.1 CC2 Ground-State Energy Calculations
- 10.2 Calculation of Excitation Energies
- 10.3 First-Order Properties and Gradients
- 10.4 Transition Moments
- 10.5 Ground State Second-order Properties with MP2 and CC2
- 10.6 Ground State third-order Properties with CC2
- 10.7 Parallel RI-MP2 and RI-CC2 Calculations
- 10.8 Spin-component scaling approaches (SCS/SOS)
- 10.9 Reaction field calculation (COSMO, PE)
- 11 CCSD, CCSD(F12*) and CCSD(T) calculations
- 12 PNO-based CCSD and CCSD(T) calculations
- 13 Random Phase Approximation and Beyond: Energy and First-Order Properties
- 14 Many body perturbation theory in the GW approximation
- 15 Calculation of Vibrational Frequencies and Vibrational Spectra
- 16 First order electron-vibration coupling
- 17 Calculation of NMR Shieldings and Couplings
- 18 EPR Properties
- 19 Calculation of Paramagnetic NMR Shieldings and Shifts
- 20 Mössbauer Properties
- 21 Embedding and Solvation Effects
- 22 Molecular Properties, Wavefunction Analysis, and Interfaces to Visualization Tools
- 23 Orbital Dependent Kohn-Sham Density Functional Theory
- 24 Vibronic absorption and emission spectra
- 25 Keywords in the control file
- 26 Sample control files
- 27 The Perl-based Test Suite Structure