Description
Matlab code for TuTraSt analysis as presented in [1].
TuTraSt is a novel algorithm to predict self-diffusion of a mobile guest particle in a crystalline material. It detects the energies at which diffusion paths are formed, allowing for easy identification of diffusive systems, and furthermore partitions the potential energy field into energy basins and transitions states. This TUnnel and TRAnsition STate search algorithm permits a transition state theory based analysis for fast prediction of the diffusion coefficients with an automated multiscale modeling approach.
TuTraSt_main.m executes the analysis reading grid.cube and input.param as input.
grid.cube is a the potential energy grid file in cube-format. Please check that the formatting of your file matches the example file given.
input.param contains the user defined parameters for the TuTraSt analysis and kMC simulations. The ordering in this file cannot be changed.
Please cite!
[1] Amber Mace, Senja Barthel and Berend Smit, J. Chem. Theory Comput. 2019, 15, 4, 2127-2141
TuTraSt is a novel algorithm to predict self-diffusion of a mobile guest particle in a crystalline material. It detects the energies at which diffusion paths are formed, allowing for easy identification of diffusive systems, and furthermore partitions the potential energy field into energy basins and transitions states. This TUnnel and TRAnsition STate search algorithm permits a transition state theory based analysis for fast prediction of the diffusion coefficients with an automated multiscale modeling approach.
TuTraSt_main.m executes the analysis reading grid.cube and input.param as input.
grid.cube is a the potential energy grid file in cube-format. Please check that the formatting of your file matches the example file given.
input.param contains the user defined parameters for the TuTraSt analysis and kMC simulations. The ordering in this file cannot be changed.
Please cite!
[1] Amber Mace, Senja Barthel and Berend Smit, J. Chem. Theory Comput. 2019, 15, 4, 2127-2141
| Date made available | 22 Apr 2019 |
|---|---|
| Publisher | GitHub |
Keywords
- scalar field analysis
- transition states
- transtition rates
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Computationally Efficient DFT-Based Sampling of Ion Diffusion in Crystalline Solids
Gustafsson, H., Schwarz, F., Smolders, T., Barthel, S. & Mace, A., 23 Sept 2025, In: Journal of Chemical Theory and Computation. 21, 18, p. 8669-8682 14 p.Research output: Contribution to Journal › Article › Academic › peer-review
Open Access -
Computationally efficient DFT-based sampling of ion diffusion in crystalline solids
Gustafsson, H., Schwarz, F., Smolders, T., Barthel, S. & Mace, A., 15 Oct 2024.Research output: Working paper / Preprint › Preprint › Academic
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Automated Multiscale Approach to Predict Self-Diffusion from a Potential Energy Field
Mace, A., Barthel, S. & Smit, B., 9 Apr 2019, In: Journal of Chemical Theory and Computation. 15, 4, p. 2127-2141 15 p.Research output: Contribution to Journal › Article › Academic › peer-review
Open Access
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