PyVisA
PyVisA provides visualization and analysis for postprocessing path sampling simulations generated by PyRETIS to interpret rare event dynamics in molecular dynamics studies.
Key Features:
- Postprocessing of path sampling simulations: Processes trajectory and path data produced by path sampling simulations for downstream analysis.
- Visualization and analysis tools: Generates visualizations and quantitative analyses to interpret path sampling outputs.
- Integration with PyRETIS: Operates on outputs from the PyRETIS open-source Python library for path sampling simulations.
- Correlation analysis: Evaluates correlations between order parameters and other descriptors within simulation data.
- Latent variable detection: Identifies latent variables that influence molecular system behavior in path ensembles.
- Identification of meta-stable states: Detects intermediate meta-stable states present in sampled transition pathways.
Scientific Applications:
- Analysis of path sampling simulations: Interprets rare event trajectories and path ensembles from molecular dynamics path sampling.
- Correlation studies: Explores relationships between order parameters and other molecular descriptors to elucidate reaction coordinates.
- Latent variable discovery: Reveals hidden degrees of freedom that affect transition mechanisms in molecular systems.
- Meta-stable state characterization: Identifies and characterizes intermediate meta-stable states along transition pathways.
- Proton transfer case study: Applied to the proton transfer reaction in a protonated water trimer using the Stillinger-David polarizable model.
Methodology:
Postprocessing of path sampling simulations from PyRETIS using visualization and analysis routines, correlation analysis between order parameters and descriptors, latent variable detection, and identification of meta-stable states.
Topics
Details
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 1/31/2021
Operations
Publications
Aarøen O, Kiær H, Riccardi E. <scp>PyVisA</scp>: Visualization and Analysis of path sampling trajectories. Journal of Computational Chemistry. 2020;42(6):435-446. doi:10.1002/jcc.26467. PMID:33314210.