
Learn about Engineering chemistry starting with Introduction to Chemistry & Quantum Chemical Methods and explore Oppenheimer Approximation, etc. in this course.

Explore quantum mechanics in organic chemistry, from probability density to hybrid orbitals, and the challenges of describing multi-electron systems using one-electron models.

Explore quantum chemistry fundamentals, from wave-particle duality to molecular orbitals. Master key concepts, equations, and theories through comprehensive lectures and practical applications.

Explore quantum chemistry and molecular spectroscopy, covering topics from Bohr's atom to polyatomic vibrations, with a focus on mathematical foundations and practical applications.

The course introduces students to quantum Chemistry. The syllabus is as follows. Black body radiation. Failure of classical mechanics. Marsden experiment and Rutherford theory. Hydrogen atom spectrum. Bohr Sommerfeld theory. etc.

Explore fundamental concepts of quantum chemistry, from wave-particle duality to Schrödinger equations, probability, and quantum operators, providing a comprehensive foundation for advanced chemical studies.

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

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

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

Explore quantum computing's potential in solving complex quantum chemistry problems, focusing on electronic structure and Hamiltonian partitioning techniques.

Explore coordination chemistry, quantum mechanics, and organic compounds. Learn about molecular structures, theories, and applications in biological systems and chemical reactions.

Comprehensive exploration of physical chemistry principles, covering thermodynamics, quantum mechanics, and chemical kinetics. Ideal for students seeking in-depth understanding of chemical systems and their behavior.

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 oxygen triple isotope systematics through theory and observations, uniting molecular insights with practical applications in geochemistry and beyond.

Explore how automatic differentiation intersects with physical symmetries and numerical analysis in scientific simulations, focusing on materials science applications in DFTK.jl.

Learn to calculate adsorption energy for charged adsorbents on periodic metallic systems, focusing on BH4 hydrolysis on AG(111) and AU(111) surfaces.

Explore advanced density functional theory computations using high-performance GPU supercomputers for cutting-edge quantum chemistry research.

Explore recent additions to DCDFTBMD program, enhancing molecular dynamics simulations and computational chemistry capabilities.

Uncover the secrets of quantum chemistry log files with Prof. Choi's expert interpretation, gaining valuable insights into complex calculations and advancing your understanding of molecular phenomena.

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