heterostructure

To design a lattice-matched heterostructure, you can pair a substrate and film material to automatically discover superlattice matches using the Zur-McGill ZSL algorithm. The workflow then evaluates area and lattice-mismatch metrics to output optimized build parameters for constructing the interface.

The Zur-McGill ZSL algorithm is used for lattice match discovery in materials design, identifying optimal superlattice matches between two materials. It calculates lattice mismatch metrics to help construct strain-minimized substrate-film interfaces and van der Waals stacks.

Yes, you can build van der Waals stacks and lattice-matched bilayers by applying lattice-matching techniques. The process locates optimal superlattice matches across various materials, supporting applications in catalysis, electronics, and energy materials.

The best way to find a substrate with minimal lattice mismatch is to compute superlattice matches using the Zur-McGill ZSL algorithm. This evaluates area and lattice-mismatch metrics between the substrate and film, generating build parameters for a strain-optimized interface.

After finding a lattice-matched superlattice, you construct the interface by specifying surface terminations and thicknesses for the paired materials. The workflow outputs precise build parameters to assemble the optimized heterostructure.

Yes, the lattice-matching workflow supports materials for catalysis, electronics, and energy applications. It applies the Zur-McGill ZSL algorithm to find compatible substrate-film pairs and van der Waals stacks across these specific material domains.