Advancing Accurate First-Principles Modeling of Complex Transition-Metal Compounds Using Density-Functional Theory with Hubbard Functionals

Learn advanced density-functional theory techniques for modeling complex transition-metal compounds through this 48-minute conference talk from the ICTP-SAIFR Workshop on High-Pressure Mineral Physics and Geophysics Applications. Explore how Hubbard functionals enhance the accuracy of first-principles calculations when studying transition-metal systems, which are notoriously challenging for standard DFT approaches due to strong electron correlations. Discover the theoretical foundations behind Hubbard-corrected DFT methods and their practical implementation for investigating the electronic, structural, and magnetic properties of transition-metal oxides and other complex compounds. Gain insights into computational strategies for handling strongly correlated electron systems and understand how these advanced methods can be applied to high-pressure mineral physics and geophysical modeling problems. The presentation, delivered by Iurii Timrov from the Paul Scherrer Institute, provides both theoretical background and practical applications relevant to researchers working in computational materials science, condensed matter physics, and geophysics.