We aim to explore electron and spin proximity interactions in vdW heterostructures of 2D materials on a fundamental level, which are induced by spin-orbit coupling and/or by proximity magnetic exchange effects. The heterostructures shall comprise atomically thin monolayers of graphene, transition metal-dichalcogenides, and topological insulators. A major focus will be on the opto-spintronic and magneto-electronic properties of the heterostructures and their control via charge tuning, layer number, quality of the material interfaces, as well as the crystallographic alignment of the monolayers.
We use a set of complementary experimental techniques to interrogate the interfacial spin texture, including (ultrafast) photocurrent and Kerr microscopy as well as spin-resolved magnetotransport spectroscopy. For heterostructure device fabrication we employ stacking methods in controlled, inert atmosphere and standard lithography techniques.