
Explore measurement incompatibility and quantum non-locality, analyzing their relationship through tensor norms and Bell inequalities in quantum theory.

Explore celestial and Carrollian amplitudes in gauge, gravitational, and string theories, and their connection to celestial Liouville theory on non-trivial backgrounds.

Explore conformal boundaries of Minkowski superspace, examining points at infinity and their intersections with super null cones. Gain insights into superconformal geometry and its applications.

Explore quantum field theory on asymptotically flat spacetimes, focusing on Hadamard states, BMS symmetry, and the Unruh state in Schwarzschild spacetime. Examine future perspectives and challenges in interacting models.

Explore Carrollian conformal scalars and their connection to flat-space higher-spin gravity in this advanced physics lecture.

Explore characteristic initial data and scri smoothness in general relativity, focusing on mathematical aspects and recent developments in the field.

Explore Carrollian amplitudes, celestial symmetries, and their connection to twistor space in massless scattering at null infinity. Gain insights into Carrollian CFT and celestial amplitudes.

Explore new developments in asymptotically leaky boundaries, focusing on recent research and ongoing work in Carrollian physics and holography.

Explore quantum gravity's constraints on effective field theories, focusing on the absence of global symmetries in consistent theories.

Explore recent advances in density functional theory for complex correlated materials, presented by Dr. Christopher Lane of Los Alamos National Lab.

Explore advanced concepts in hadron spectroscopy, including scattering theory, quantum electrodynamics, and amplitude unitarity. Deepen understanding of particle physics principles.

Explore hadron spectroscopy, quantum theories, and particle physics concepts through interactive notebooks and comprehensive reviews of fundamental principles.

Explore machine learning applications in crystallization, from molecular dynamics to enhanced sampling techniques for rare events and homogeneous nucleation.

Explore quantum computing fundamentals, including qubits, superposition, and entanglement. Gain insights into potential applications and future implications of this revolutionary technology.

Explore phonons and structural transitions using DFT and group theory, advancing understanding of material properties and phase changes.

Explore phonons and structural transitions using DFT and group theory, gaining insights into fundamental concepts and advanced computational techniques.

Explore quantum chromodynamics spectroscopy, delving into the study of hadron properties and interactions through advanced theoretical and computational methods.

Explore phi^4 theory and Ising model on spherical geometry, gaining insights into advanced physics concepts and their applications.

Explore computational condensed matter using first principles thermodynamics, gaining insights into advanced techniques and applications.

Explore lattice dynamics through an in-depth seminar, gaining insights into crystal structures and their vibrational properties from expert Prof. Bartomeu Monserrat.

Explore computational methods for studying correlated electron materials, focusing on advanced concepts and techniques in materials science and chemistry.