Abstract
This project systematically investigates topological phenomena in strongly-correlated f-electron materials, where the complex interplay between competing interactions generates diverse emergent quantum states. We focus on non-symmorphic compounds exhibiting non-zero Berry curvature effects, including the Anomalous Hall and Nernst effects, while strategically manipulating electronic structure and dimensionality. Our unique approach combines expertise in both bulk rare earth/actinide science and thin film engineering, enabling precise control over material properties. Through advanced quantum mechanical modeling using dynamical mean field theory, we aim to develop a comprehensive framework for understanding and predicting the formation of exotic topological states in these complex systems. This research addresses a significant gap in our understanding of strongly-correlated magnetic topological materials, with potential applications in next-generation quantum technologies and spintronics.