AutoSolvate

AutoSolvate automates high-throughput quantum chemistry (QC) calculations for explicitly solvated molecules to generate solution-phase molecular properties at the quantum mechanical level.


Key Features:

  • Automated Workflow: Automates solvated-structure generation, configuration sampling, and extraction of microsolvated cluster structures for downstream QC calculations.
  • Machine Learning Integration: Incorporates machine learning models that predict solute–solvent closeness based on solute and solvent identities to guide initial structure generation.
  • Force Field Fitting and Configuration Sampling: Performs force field fitting and configuration sampling to produce representative molecular configurations for quantum calculations.
  • Microsolvated Cluster Extraction: Extracts microsolvated cluster structures prepared for use in quantum chemistry packages to predict molecular properties.
  • High-throughput Explicit-Solvent QC: Supports large-scale explicit-solvent QC calculations for datasets intended for computational and data-driven studies.

Scientific Applications:

  • Dataset Generation for AI-driven Design: Generates large, high-quality explicit-solvent quantum chemistry datasets for artificial intelligence–driven chemical design and discovery.
  • Reorganization Energy Calculations: Has been applied to calculate outer-sphere reorganization energy for a dataset of 166 redox couples.

Methodology:

Solvated-structure generation aided by machine learning prediction of solute–solvent closeness, followed by force field fitting and configuration sampling, and extraction of microsolvated cluster structures for quantum chemistry analysis.

Topics

Details

License:
BSD-3-Clause
Cost:
Free of charge (with restrictions)
Tool Type:
workflow
Operating Systems:
Windows, Linux
Programming Languages:
Python
Added:
7/17/2022
Last Updated:
11/24/2024

Operations

Publications

Hruska E, Gale A, Huang X, Liu F. AutoSolvate: A toolkit for automating quantum chemistry design and discovery of solvated molecules. The Journal of Chemical Physics. 2022;156(12). doi:10.1063/5.0084833. PMID:35364887.

Documentation