
Explore density-functional theory and numerical techniques for solving it using Julia. Learn about discretization, solution algorithms, and practical implementation with hands-on coding exercises.

Introducing DFTK: A Julia package for density-functional theory simulations, offering flexibility for practical calculations and mathematical development in electronic structure research.

Explore input options in quantum chemistry with Prof. Choi. Gain insights into fundamental concepts and advanced techniques for both beginners and experienced practitioners.

Explore finite-size errors in periodic systems, focusing on Hartree-Fock and MP2 theories. Learn about convergence rates, Madelung-constant correction, and the staggered mesh method for improved calculations.

Explore large-coupling strength expansions in DFT and Hartree-Fock adiabatic connections, examining their applications in quantum chemistry and electronic structure theory.

Explore many-electron effective Hamiltonians using similarity renormalization group, focusing on bond-breaking reactions, spin states, and excited states of molecules with near-degenerate electronic structures.

Explore recent developments and new features in Q-Chem code with Martin Head-Gordon from UC Berkeley, highlighting advancements in computational chemistry software.

Explore the latest advancements in computational chemistry software with insights on Q-Chem 6.0 and upcoming features in version 6.1, enhancing your research capabilities.

Introduction to coupled cluster exercises, guiding participants through practical applications of concepts from the previous lecture on coupled cluster calculations.

Explore potential energy surfaces using advanced multireference quantum chemistry techniques. Gain insights into complex molecular systems and their behavior.

Explore density-functional tight-binding and spin-restricted ensemble-referenced Kohn-Sham methods for calculating exciton couplings in quantum chemistry.

Explore advanced multireference computational techniques using COLUMBUS, now open-source. Learn from expert Felix Plasser about cutting-edge quantum chemistry methods.

Explore advanced computational methods for excited states, including many-body Green's function and state-specific CI techniques, with expert Pierre-Francois Loos.

Explore reduced-scaling coupled cluster theory applications in frequency and time domains with expert T. Daniel Crawford's insights.

Explore advanced quantum chemistry techniques, including semi-stochastic methods and selected-CI-driven CC computation, for achieving near-exact results.

Explore highly oscillatory dynamics in quantum systems, focusing on efficient simulation algorithms for time-dependent Hamiltonians with applications in various scientific fields.

Explore advanced modeling of solvated electrons using machine learning, overcoming challenges in accuracy and efficiency to study structure, dynamics, and properties across temperatures.

Explore new correlation-consistent effective core potentials for quantum chemistry calculations, enhancing accuracy and efficiency in molecular simulations.

Explore advanced techniques in quantum mechanics with a focus on orbital optimization methods and their applications in computational physics.

Explore relativistic effects on exchange interactions and spin-dynamics simulation, bridging electronic structure theory with atomistic magnetization dynamics. Gain insights into skyrmion formation and multiscale methods.