NN-MGSF / DFD

Take atomic interactions into material behavior.

Atomic energy models + defect dynamics

Dislocations and twins take part in material deformation. Bring learned atomic-layer interactions into defect dynamics to follow how these structures activate, move and grow together.

Interactions between neighboring atomic planes Interactions between neighboring atomic planes

Carry atomic interactions into a larger-scale model.

Neighboring atomic planes move together. NN-MGSF learns their coupled energy; DFD combines its gradients with long-range elasticity to follow collective defect evolution.

Atomic-layer interactions and relative slip
Atomic-layer interactions and relative slip

Watch a twin grow from its internal interactions.

Local atomic energetics and long-range stress act together as twin boundaries move. The simulation makes collective growth visible, extending atom-informed modeling beyond isolated defects.

Collective twin evolution

Collective twin evolution

Connect the internal state to materials development.

Atomic information

Learn the interactions that drive local slip.

Defect evolution

Resolve how defects activate and interact.

Material design

Build a mechanistic basis for future deformation and property models.

Turn your material question into a computing opportunity.

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