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Accurate prediction of global-density-dependent range-separation parameters based on machine learning.

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A new XGBoost model accurately predicts the range-separation parameter for long-range corrected functionals (LRC-ωPBE), bypassing complex calculations. This machine learning approach enables rapid, efficient predictions for various chemical systems.

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Area of Science:

  • Computational Chemistry
  • Machine Learning in Quantum Mechanics
  • Density Functional Theory

Background:

  • Accurate prediction of electronic properties requires precise density functional approximations.
  • Long-Range Corrected (LRC) functionals, like LRC-ωPBE, improve accuracy but often need system-specific parameter tuning.
  • Determining the optimal range-separation parameter (ω) is crucial for LRC functional performance.

Purpose of the Study:

  • To develop an accurate and efficient machine learning model for predicting the global-density-dependent range-separation parameter (ωGDD) for LRC-ωPBE.
  • To enable rapid, computationally inexpensive predictions of ωGDD using only atomic coordinates.
  • To demonstrate the utility of the developed model in predicting molecular properties and interactions.

Main Methods:

  • Development of an XGBoost machine learning model (ωGDDML) utilizing fingerprints of local atomic environments and distance histograms.
  • Training and validation of the model on a large dataset of 11,466 diverse chemical systems.
  • Application of the LRC-ωPBE(ωGDDML) functional to predict polarizabilities and noncovalent interactions.

Main Results:

  • The ωGDDML model achieved high accuracy on a test set of 7046 complexes, with a mean absolute error of 0.001117 a0-1.
  • Excellent transferability was observed, with only 0.07% of systems showing errors greater than 0.01 a0-1.
  • LRC-ωPBE(ωGDDML) demonstrated superior performance in predicting polarizabilities and bypassed the need for traditional ab initio system-specific tuning for noncovalent interactions.

Conclusions:

  • The developed ωGDDML model provides an accurate, efficient, and transferable method for determining the range-separation parameter for LRC-ωPBE.
  • This data-driven approach significantly reduces computational cost by eliminating the need for electronic structure calculations for parameter prediction.
  • The fusion of physically inspired LRC-ωPBE with the data-driven ωGDDML model offers synergistic benefits for quantum mechanical calculations.