Quantum Materials

This research area in Quantum Materials aims to uncover and harness the emergent properties of matter arising from quantum effects, and to translate these phenomena into functional applications. This interdisciplinary effort spans condensed matter physics, materials science, and biophysics. We investigate the structure and interactions of matter at the atomic scale, with a focus on understanding how complex behaviors emerge. This includes electronic, vibrational, magnetic, and topological properties, with the goal of leveraging them for technologically relevant functionalities such as superconductivity, topological phases, and enhanced chemical reactivity. This activity addresses a broad spectrum of systems, from complex biological systems to advanced materials with near-term technological potential, integrating experimental and theoretical methodologies. These include advanced numerical simulations powered by high-performance computing and modern data-driven techniques. Experimentally, the activity is rooted in electron microscopy, as well as optical and magnetic instrumentation.