This method could open the door to making quantum building blocks that can interact to produce exotic electronic, magnetic and topological properties.
This is the first precision positioning of transition-metal dopants in graphene. The produced graphene-dopant complexes can exhibit atomic-like behavior, inducing desired properties in the graphene.
“What could you build if you could put any atoms exactly where you want? Just about anything,” ORNL’s Ondrej Dyck said. He co-led the study with Stephen Jesse at ORNL’s Center for Nanophase Materials Sciences.
Transition metals stitched into graphene with an electron beam form promising quantum building blocks.
“If a lot of these quantum building blocks get together, they can start to act in a correlated manner, which is when really exciting properties begin to emerge,” Jesse said. The scientists plan to make arrays of interacting quantum building blocks to investigate emergent properties.
Read the original article on Oak Ridge National Laboratory.
