
Explore interactive modeling of materials using density functional theory with Quantum ESPRESSO in the MIT Atomic-Scale Modeling Toolkit. Learn to compute and analyze various material properties through hands-on examples.

Explore density functional theory, data visualization, and undergraduate research experiences using the MIT Atomic-Scale Modeling Toolkit for modern physics and condensed matter studies.

Explore nuclear physics concepts, focusing on the equation of state and its connections to nuclear structure and astrophysics in this advanced lecture.

Explore the interplay between nuclear structure and astrophysics, focusing on the equation of state and its implications for understanding cosmic phenomena.

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

Explore DFT insights on engineering 2D electron and hole gases at Si/SiGe interfaces, part of a workshop on emergent phenomena in 2D quantum materials and heterostructures.

Explore advancements in Q-Chem's PBC package for periodic systems, including hybrid DFT speedup and MPI parallelization. Learn about current functionality and future development directions.

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

Advances in OO-DFT for modeling core-level excitations, focusing on SGM method and spin contamination. Applications to transient X-ray absorption spectroscopy, including Jahn-Teller distortion and symmetry breaking in molecular cations.

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 advanced quantum chemistry techniques for balancing dynamic and non-dynamic electron correlations in MRSF-TDDFT calculations.

Explore efficient van der Waals corrections for density functional approaches in material simulations, enhancing accuracy in computational chemistry.

Explore electronic-structure informatics, covering concepts, methods, applications, and potential extensions in computational chemistry and materials science.

Explore non-hermitian approaches to representability in density-matrix embedding theory, enhancing understanding of quantum chemistry concepts and computational methods.

Explore advanced quantum mechanics concepts, focusing on Hubbard and Koopmans functionals in linear response, with emphasis on auxiliary systems and spectroscopy design.

Explore spectral properties of finite and extended systems using KCW code in Quantum ESPRESSO, focusing on Hubbard and Koopmans functionals.

Explore Koopmans functionals implementation in Quantum ESPRESSO using density functional perturbation theory, enhancing electronic structure calculations.

Explore spectral properties of finite and extended systems through hands-on exercises using Quantum ESPRESSO, focusing on Hubbard and Koopmans functionals.

Accelerate Koopmans screening parameter calculations with machine learning techniques in Quantum ESPRESSO, enhancing efficiency in computational materials science.