High dimensional neural network potential (HDNNP) is interested as an alternative to classical force field calculations by data-driven approach. HDNNP has an advantage over classical force field calculation, such as being able to handle chemical reactions, but there are many points yet to be understood with respect to the chemical transferability in particular for non-organic compounds. In this paper, we focused on Au13+ and Au11+ clusters and showed that the energy of clusters of different sizes can be predicted by HDNNP with semi-quantitative accuracy.</p
Photoelectrochemical (PEC) water splitting cells, used to create hydrogen from solar energy, are cru...
To achieve chemical accuracy in free energy calculations, it is necessary to accurately describe the...
Parametric and non-parametric machine learning potentials have emerged recently as a way to improve ...
Data-driven machine learning force fields (MLFs) are more and more popular in atomistic simulations ...
A central concern of molecular dynamics simulations is the potential energy surfaces that govern ato...
We implement a method for constructing analytic interatomic potentials by fitting artificial neural ...
Molecular mechanics is the tool of choice for the modeling of systems that are so large or complex t...
Molecular mechanics is the tool of choice for the modeling of systems that are so large or complex t...
Development and applications of neural network (NN)-based approaches for representing potential ener...
The molecular dynamics (MD) simulation is a favored method in materials science for understanding an...
Artificial neural networks are fitted to molecular dynamics trajectories using the Behler-Parrinello...
Despite the ever-increasing computer power, accurate ab initio calculations for large systems (thous...
We demonstrate how a deep neural network (NN) trained on a data set of quantum mechanical (QM) DFT c...
The ability to accurately and efficiently compute quantum-mechanical partial atomistic charges has m...
Machine learning techniques using artificial neural networks (ANNs) have proven to be effective tool...
Photoelectrochemical (PEC) water splitting cells, used to create hydrogen from solar energy, are cru...
To achieve chemical accuracy in free energy calculations, it is necessary to accurately describe the...
Parametric and non-parametric machine learning potentials have emerged recently as a way to improve ...
Data-driven machine learning force fields (MLFs) are more and more popular in atomistic simulations ...
A central concern of molecular dynamics simulations is the potential energy surfaces that govern ato...
We implement a method for constructing analytic interatomic potentials by fitting artificial neural ...
Molecular mechanics is the tool of choice for the modeling of systems that are so large or complex t...
Molecular mechanics is the tool of choice for the modeling of systems that are so large or complex t...
Development and applications of neural network (NN)-based approaches for representing potential ener...
The molecular dynamics (MD) simulation is a favored method in materials science for understanding an...
Artificial neural networks are fitted to molecular dynamics trajectories using the Behler-Parrinello...
Despite the ever-increasing computer power, accurate ab initio calculations for large systems (thous...
We demonstrate how a deep neural network (NN) trained on a data set of quantum mechanical (QM) DFT c...
The ability to accurately and efficiently compute quantum-mechanical partial atomistic charges has m...
Machine learning techniques using artificial neural networks (ANNs) have proven to be effective tool...
Photoelectrochemical (PEC) water splitting cells, used to create hydrogen from solar energy, are cru...
To achieve chemical accuracy in free energy calculations, it is necessary to accurately describe the...
Parametric and non-parametric machine learning potentials have emerged recently as a way to improve ...