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structure. This leads to remarkable electronic properties. For example, twisted bilayer graphene can exhibit superconductivity, while a single layer of graphene does not. These materials also show unusual
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I supervise a wide range of PhD projects on experimental research into the electronic properties of novel quantum materials including topological insulators, graphene, and other atomically thin two
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applications. The ultimate goal of the research is to understand quantum transport through molecular structure such as single molecules, self-assembled monolayers, graphene nanoribbons and van der Waals
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-thin transition metal membranes on porous graphene. The gas transport mechanisms, including energy barriers related to H2 diffusion and resistance contributed by the chemisorption of H2 in the membranes
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on the material sciences and technology aspects of novel electronic materials, with a strong emphasis on graphene as well as other 2D materials (MoS2). The group also works towards the development of technological
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architectures for quantum superlattice devices, including embedded contacts and electron-transparent regions. Develop transfer and stacking processes for graphene, hBN, transition metal dichalcogenides and charge
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My area of expertise is condensed matter theory. I am interested in the interplay between interactions and unconventional electronic properties of novel materials including graphene, topological
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, symmetries play a fundamental role. Thus, much like graphene in solid-state physics, materials with honeycomb symmetry exhibit exceptional properties: for example, introducing a linear defect into such media
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Bachtold. The group investigate emergent quantum phenomena in hybrid electrical and mechanical systems engineered from low-dimensional condensed matter platforms, including graphene and carbon nanotubes
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stresses found in human skin, the proposed nanochannels will be meticulously crafted from cutting-edge 2D materials. Leveraging the unique properties of these materials, such as graphene or other two