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Machine-Learned Potentials: DFT-Level Accuracy for Real-World R&D

Machine-Learned Potentials: DFT-Level Accuracy for Real-World R&D

Recent advancements in machine learned potentials (MLPs) allow researchers to perform simulations that access nanosecond-scale dynamics with atomistic models that describe domain sizes of the order of several nanometers. Such simulations can now be performed with reasonable computational resources whereby the interatomic interactions are described with the accuracy of first-principles methods such as standard density functional methods or beyond.

While MLPs are the key to modeling real materials, integrating them into existing R&D workflows remains a significant challenge for many researchers. In response to this, the MedeA 3.12 multiscale simulation environment delivers a comprehensive, end-to-end machine learning workflow for materials modeling.


This webinar will share several case studies showcasing how the integrated machine-learning workflow in MedeA 3.12 can accelerate your research, streamline the adoption of MLPs, and move beyond the limitations of standard first-principles methods.

8725137594034855259

Tuesday, May 19, 2026 10:00 AM PDT / 12:00 PM CDT / 1:00 PM EDT

24330448513549915

Wednesday, May 20, 2026 10:00 AM EDT / 4:00 PM CEST / 7:30 PM IST

7423356508678682969

Thursday, May 21, 2026 8:00 AM CEST / 11:30 AM IST / 2:00 PM CST / 3:00 PM JST

In this webinar, you will learn how to:

  • Train machine learned potentials for accurate atomistic simulations

  • Deploy MLPs within an integrated multiscale modeling environment

  • Bridge first-principles accuracy with large-scale, long-timescale simulations

  • Streamline the adoption of MLPs into existing R&D workflows

  • Accelerate materials research using an end-to-end machine learning workflow in MedeA 3.12


Who should attend:

  • Materials scientists and computational chemists in industry and academia

  • R&D engineers working in molecular modeling, simulation, or design

  • Researchers interested in machine learning applications in materials science

  • Users of density functional theory (DFT) seeking scalable alternatives or extensions Teams looking to accelerate materials discovery and simulation workflows

Presented by Cheng-Wei Lee

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