
Explore advanced electronic-structure methods for materials science, focusing on Hubbard and Koopmans functionals from linear response in Quantum ESPRESSO.

Explore optimally-tuned functionals for accurate electronic and optical spectra calculations in advanced quantum systems.

Explore advanced exchange-correlation functionals in DFT, focusing on Hubbard and Koopmans functionals from linear response for enhanced quantum calculations.

Explore maximally localized Wannier functions, their theoretical foundations, and latest advancements in quantum materials research.

Explore advanced quantum mechanics concepts, focusing on phase diagrams and transitions beyond harmonic phonons in materials science.

Explore successes and failures of DFT+U in ferroic materials, focusing on Hubbard and Koopmans functionals from linear response in advanced quantum calculations.

Explore advanced quantum mechanics with a focus on Hubbard and Koopmans functionals, delving into linear response theory and many-body perturbation techniques.

Explore AiiDA-Vibroscopy for calculating infrared and Raman spectra using various functionals in Quantum ESPRESSO, enhancing materials research capabilities.

Explore computational workflows for accelerated design of novel materials, focusing on Hubbard and Koopmans functionals from linear response in advanced quantum calculations.

Explore spin-orbit physics in magnets using density functional theory. Understand electronic structure changes, magnetic interactions, and their impact on condensed matter phenomena.

Explore recent advances in density functional theory for complex correlated materials, presented by Dr. Christopher Lane of Los Alamos National Lab.

Explore machine learning applications in crystallization, from molecular dynamics to enhanced sampling techniques for rare events and homogeneous nucleation.

Explore phonons and structural transitions using DFT and group theory, advancing understanding of material properties and phase changes.

Explore phonons and structural transitions using DFT and group theory, gaining insights into fundamental concepts and advanced computational techniques.

Explore computational condensed matter using first principles thermodynamics, gaining insights into advanced techniques and applications.

Explore computational methods for studying correlated electron materials, focusing on advanced concepts and techniques in materials science and chemistry.

Explore GPU-based electronic structure computations for exascale platforms using PROGRESS and BML libraries. Learn implementation strategies, performance optimization, and scaling techniques.

Explore CHGNet, a graph-neural-network-based machine-learning potential for modeling universal potential energy surfaces in large-scale simulations with complex electron interactions.

Explore machine learning models for efficient electronic structure calculations in materials discovery and drug design, focusing on density functional theory and the Materials Learning Algorithms library.

Explore disordered hyperuniformity in 2D materials, its impact on electronic structures, and role of topological defects in preserving hyperuniformity in amorphous materials.

Explore a practical and accurate solution to the Poisson equation in full-potential KKR, focusing on the removed-sphere method for disordered materials.