Chair of Experimental Solid State Physics - Quantum Materials
Since the first extraction of graphene and the subsequent Nobel Prize for its fascinating two-dimensional (2D) properties, a wide variety of atomically thin materials has been discovered, which together cover almost every phenomenon in condensed matter physics such as magnetism, superconductivity, topological insulation and many more. In contrast to its 3D counterparts, these materials become strongly renormalized in the strict 2D limit, through a combination of quantum confinement and enhanced electronic interactions. As a result these fascinating compounds exhibit enhanced quantum effects and display exceptionally strong interactions with electro-magnetic fields. In the Chair of Experimental Solid State Physics - Quantum Materials we use innovative nano-fabrication techniques to create novel designer materials made by vertical stacking of various 2D materials. The shear infinite number of combinations and stacking order allows to engineer exotic quantum systems with an unprecedented level of control and tune-ability. We study these complex electronic states with a combination of electrical, optical and thermal measurements, and employ these to provide new types of hybrid devices for quantum sensing applications.
Plethora of exotic quantum phases arise in a variety of flat electronic bands in engineered 2D quantum materials.
Openings: For M.Sc., Ph.D. and postdoc projects - email to firstname.lastname@example.org.