Engineered superlattices in two-dimensional materials
This project aims to engineer artificial superlattice potentials in atomically thin materials to realise and study strongly correlated electronic phases.
This project aims to engineer artificial superlattice potentials in atomically thin materials to realise and study strongly correlated electronic phases.
The aim of this project is to develop a two-dimensional lateral superlattice gating technique for atomically thin materials, such as bilayer graphene, in order to engineer flat electronic bands in the energy spectrum. By creating tunable artificial lattice potentials, the project seeks to enhance electron-electron interactions and provide a controllable platform for the emergence of strongly correlated electronic phases, probed via low-temperature electrical transport measurements.
The outcomes of this research will address fundamental questions in solid-state physics, including the mechanisms underlying high-temperature superconductivity and other correlated electronic phenomena. At the same time, the work has potential technological relevance in emerging quantum technologies, including quantum sensing and quantum computing.
A BSc in Physics with Honours (H1 or H1E) or a Master by Research. Experience with cryogenic measurements and device fabrication is desirable. The successful applicant must meet Australian Government requirements and UNSW PhD entry standards.
School of Science
Condensed Matter and Materials Physics
1892, 2931
Please contact Oleh to discuss this project and potential applications.