
Explore quantum computing applications in quantum chemistry, focusing on advanced concepts and practical implementations.

Explore the anomalous Hall conductivity in CoS2, examining its pyrite structure, ferromagnetic properties, and electronic characteristics through experimental data and DFT results.

Explore numerical methods for discretizing continuum states in electronic structure, addressing scattering, photo-ionization, and resonances. Learn efficient computational techniques with applications in condensed matter physics and chemistry.

Uncover the fundamental principles and applications of Density Functional Theory (DFT), exploring its role in physics, chemistry, and biology while understanding its operational framework and research potential.

Explore the band structure transformations in impure graphene, focusing on avoided crossing phenomena and their implications for theoretical physics.

Explore chemical compound space through first principles and machine learning, gaining insights into atomistic and electronic structures for efficient materials discovery and understanding.

Explore flat bands in twisted bilayer transition metal dichalcogenides, focusing on Moire patterns, electronic structure, and localization effects in various twist angles and stacking configurations.

Explore randomized methods for quantum many-body problems, focusing on Monte Carlo techniques to approximate ground and excited states in large systems. Learn about VMC and FCIQMC algorithms.

Explore stochastic vector approaches for electronic structure in condensed matter systems, reducing complexity and enhancing efficiency in computational quantum mechanics.

Explore mathematical models of electronic structure, focusing on quantum mechanics applications in materials science and chemistry, presented by Duke University expert Jianfeng Lu.

Explore electronic structure and topological states in charge density wave compounds, focusing on transition metal tetrachalcogenides and their unique properties in ultra-high magnetic fields.

Exploring disorder effects in topological magnetic semimetals, focusing on exotic transport properties, Berry curvature, and intrinsic anomalous Hall effect in various material systems.

Explore Density Functional Theory fundamentals and applications using Quantum Espresso on nanoHUB. Learn to compute electronic structures, densities of state, total energies, and bulk modulus for materials.

Comprehensive introduction to Density Functional Theory for 2D materials, covering fundamental concepts, applications, and practical implementation techniques.

Explore unconventional behavior in van der Waals bilayers, focusing on emergent electronic, magnetic, and topological phenomena in 2D synthetic quantum material structures.

Explore layer-resolved electronic structure of oxide heterostructures using high-energy techniques. Gain insights into emergent phenomena in 2D quantum materials and their potential applications.

Explore superconducting nickelates in this talk on engineered 2D quantum materials, covering recent developments in electronic, magnetic, and topological phenomena in synthetic structures.

Explore Q-Chem software: features, community, and applications in computational chemistry. Learn about ground state methods, excited states, and molecular dynamics simulations.

Explore density functional theory methods with Prof. Martin Head-Gordon, covering key concepts, functional design, and performance analysis in computational chemistry.

Explore DFT and TDDFT applications in molecular properties and spectra with Prof. Martin Head-Gordon. Covers first/second-order properties and excited states, with accompanying lab exercise.

Explore lattice reconstruction, piezoelectricity, and topology in twisted MoTE2 with expert Di Xiao, delving into advanced condensed matter physics concepts and their applications.