Introduction to Anomalies in Condensed Matter Physics - Lecture 3
Explore topological and invertible phases in condensed matter physics, covering Majorana chains, bordism invariance, and symmetry-protected topological states.
Generalized Symmetries and Phases of Gauge Theory - Lecture 4
Explore higher-form and higher-group symmetries in gauge theory phases, focusing on 3+1 dimensions. Gain insights into anomalies and SPTs through expert lectures.
Generalized Symmetries and Phases of Gauge Theory - Lecture 3
Explore higher-form and higher-group symmetries in gauge theory phases, focusing on 3+1 dimensions. Gain insights into anomalies and SPTs through expert lectures.
Exploring Potential Energy Surfaces with the Unified Reaction Valley Approach (URVA)
Explore potential energy surfaces using the unified reaction valley approach (URVA) for advanced chemical reaction analysis and understanding.
Electronic-Structure Informatics: Concept, Method, Applications, and Plausible Extension
Explore electronic-structure informatics, covering concepts, methods, applications, and potential extensions in computational chemistry and materials science.
Unraveling the Photochemical Mechanism of Iron Tris-2,2'-Bipyridine via Wavepacket Dynamics
Explore photochemical mechanisms of iron complexes through wavepacket dynamics, uncovering insights into molecular behavior and reactions.
High-Level Multireference Computations Using COLUMBUS - Going Open-Source
Explore advanced multireference computational techniques using COLUMBUS, now open-source. Learn from expert Felix Plasser about cutting-edge quantum chemistry methods.
A Non-Hermitian Approach to the Representability Issue in Density-Matrix Embedding Theory
Explore non-hermitian approaches to representability in density-matrix embedding theory, enhancing understanding of quantum chemistry concepts and computational methods.
Computation of Accurate Molecular Polarizabilities for Establishing Quantitative Raman Spectroscopy
Explore accurate molecular polarizability calculations for quantitative Raman spectroscopy with expert Henryk A. Witek.
Open Quantum Platform - A Good Way of Exchanging Scientific Software
Explore scientific software exchange through the Open Quantum Platform. Learn about innovative approaches to sharing and collaborating on quantum computing tools and resources.
Many-Body Green's Function and State-Specific CI Methods for Excited States
Explore advanced computational methods for excited states, including many-body Green's function and state-specific CI techniques, with expert Pierre-Francois Loos.
Reduced-Scaling CC Theory in the Frequency and Time Domains
Explore reduced-scaling coupled cluster theory applications in frequency and time domains with expert T. Daniel Crawford's insights.
Approaching Exact Quantum Chemistry by Semi-Stochastic and Selected-CI-Driven CC Computation
Explore advanced quantum chemistry techniques, including semi-stochastic methods and selected-CI-driven CC computation, for achieving near-exact results.
MRSF-TDDFT - A Simple Yet Powerful Quantum Theory
Explore a powerful quantum theory, MRSF-TDDFT, and its applications in computational chemistry and materials science.
Quantum Chemistry with Qiskit
Explore quantum chemistry applications using Qiskit, focusing on simulating molecular systems and solving electronic structure problems.
Learning Many-body Hamiltonians with Heisenberg-limited Scaling
Explore advanced quantum physics concepts and learn about many-body Hamiltonians with Heisenberg-limited scaling in this insightful talk by Yu Tong from Caltech.
Signatures of the Yang-Mills Deconfinement Transition from the Gluon Two-Point Correlator
Explore Yang-Mills deconfinement transition signatures through gluon two-point correlator analysis in this advanced physics lecture.
Effects of Strong Electric and Magnetic Fields in Superdense Matter
Explore the impact of intense electromagnetic fields on ultra-dense matter, focusing on astrophysical implications and theoretical models.
QCD Pressure at Finite Temperature and High Magnetic Fields
Explore QCD pressure dynamics in extreme conditions: finite temperature and intense magnetic fields. Gain insights into cutting-edge research in strongly interacting matter.
Electric and Magnetic Field Effects on Scalar Self-Interacting Theory - Including Temperature
Explore electric and magnetic field effects on scalar self-interacting theory, incorporating temperature considerations in this advanced physics lecture.
The Magnetic Field Independent Regularization Applied to Light Meson Masses: The Neutral ρ Meson Case
Explore magnetic field independent regularization for light meson masses, focusing on the neutral ρ meson case in strongly interacting matter.