Quantum simulator to emulate lower dimensional molecular structure
arXiv:2210.06754 · doi:10.1126/science.adf2685
Abstract
Bottom-up quantum simulators have been developed to quantify the role of various interactions, dimensionality, and structure in creating electronic states of matter. Here, we demonstrated a solid-state quantum simulator emulating molecular orbitals, based solely on positioning individual cesium atoms on an indium antimonide surface. Using scanning tunneling microscopy and spectroscopy, combined with ab initio calculations, we showed that artificial atoms could be made from localized states created from patterned cesium rings. These artificial atoms served as building blocks to realize artificial molecular structures with different orbital symmetries. These corresponding molecular orbitals allowed us to simulate 2D structures reminiscent of well known organic molecules. This platform could further be used to monitor the interplay between atomic structures and the resulting molecular orbital landscape with sub-molecular precision.
References in corpus (7)
- Chiral tunneling and the Klein paradox in graphene
- Two-dimensional Mott-Hubbard electrons in an artificial honeycomb lattice
- The Quantum Hall Transition in Real Space: From Localized to Extended States
- Molecular structure elucidation with charge-state control
- p-band engineering in artificial electronic lattices
- Quantum simulator to emulate lower dimensional molecular structure
- Probing electron-electron interaction in quantum Hall systems with scanning tunneling spectroscopy
Cited by in corpus (8)
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- Implementation and characterization of the dice lattice in the electron quantum simulator
- Wannier center spectroscopy to identify boundary-obstructed topological insulators
- Quantum dots on the InAs(110) cleavage surface created by atom manipulation
- Time-reversal symmetric topological superconductivity in Machida-Shibata lattices