If you want to use machine learning for potential energy surfaces, one of the biggest obstacles is getting the data to train machine learning potential. We have recently developed the physics-informed active learning protocol for efficient data sampling and training …

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Choosing a quantum chemical method suitable for your simulations is not an easy task, because you need to balance accuracy andcomputational cost requirements. Unless you use B3LYP all the time, of course. Generally, the more time you spend, the more …

Supercharge your computational chemistry with the universal and updatable AI models Read more »

Recently, the Chung group at Southern University of Science and Technology (SUSTech) has combined efficient machine learning potentials (MLPs) with multi-scale quantum refinement methods to enhance computational efficiency and reliability. Their results are published in Nature Communications. The CC-quality AIQM1 method in MLatom@XACS software was …

Nat. Commun.:Accelerating reliable multiscale quantum refinement of protein-drug systems enabled by AIQM1 Read more »

MLatom@XACS is a powerful tool for training and using machine learning potentials. It supports a wide variety of representative potentials. These potentials include: ·Equivariant neural network MACE ·Popular ANI with a good cost/performance ratio ·Kernel methods such as KREG and …

Training and using machine learning potentials with MLatom@XACS Read more »