Physics-informed Machine Learning (D2.2)

We aim to make ML models with applications in the cluster aware of the underlying physics, improving extrapolation and explainability.
Our Goal

We will design hybrid physics-guided ML potentials, e.g., to dramatically accelerate atomistic simulations. In addition, we will exploit the concept of chemical connectivity in highly accurate graph neural network models, such as coGN or NequIP, to allow the simulation of large systems (tens of thousands of atoms) over large timescales (up to ns and more), far beyond the limit of electronic-structure-based simulations and far beyond the accuracy of force-field-based methods. We will train graph-neural-network (GNN) models for selected systems developed in Research Area A to better understand nanoscale processes relevant during printing and in applications. These efforts are tightly interlinked with LP2.

Principal Investigators Involved

Saeed Amirjalayer
Heidelberg University

saeed.amirjalayer@iwr.uni-heidelberg.de

Pascal Friederich
Karlsruhe Institute of Technology

pascal.friederich@kit.edu

Carsten Rockstuhl
Karlsruhe Institute of Technology

carsten.rockstuhl@kit.edu

Wolfgang Wenzel
Karlsruhe Institute of Technology

wolfgang.wenzel@kit.edu

Related Topics:

Research Area A

Molecules & Inks

Research Area B

Technologies

Research Area C

Applications

Research Area D

Digital Blueprints