
Explore the concept of irrelevance in integrable models across mathematical physics, condensed-matter physics, and string theory. Gain insights into recent advances and their implications for various fields.

Explore cutting-edge research on planar N=4 SYM scattering, focusing on the cusp anomalous dimension and its connections to integrable models in theoretical physics.

Explores non-equilibrium Green's function method for energy, momentum, and angular momentum transfer via photons, covering applications in graphene, nanotubes, and molecular systems.

Explores Casimir force between Weyl semimetals in chiral media, discussing electrodynamics, current materials, reflection matrices, and results. Offers insights into quantum electrodynamic fluctuations and their implications.

Explores nanostructured materials' optical response and its impact on Casimir-Lifshitz force, covering multilayer structures, absorption, and interference effects in quantum electrodynamics.

Explore polarized thermal emission from metamaterials using Stokes parameters and fluctuational electrodynamics, with focus on optical properties, near-field heat transfer, and novel 2D materials.

Explores cost-effective photonic metamaterials for energy applications, focusing on passive cooling, solar-driven water evaporation, and high-temperature stability in various materials and systems.

Explore few-body universality in physics, its significance, and applications. Uncover unitary interactions, scaling laws, and universal numbers in quantum systems across different fields.

Explore low-energy nuclear physics, focusing on the island of inversion isotopes 28-33F. Learn about nuclear stability, emergent phenomena, and advanced theoretical methods like DMRG.

Explore nuclear structure effects in muonic atoms, focusing on experimental investigations, calculations, and the proton radius puzzle. Gain insights into few-body physics and its applications across scientific disciplines.

Explore open quantum systems and rare isotopes at high energies, focusing on few-body physics near unitarity. Discover insights from atomic and nuclear physics with cross-disciplinary applications.

Explore universal clusters and crystalline correlations in mass-balanced fermionic mixtures, examining bound states, angular momentum, and phase transitions in few-body physics.

Explore short-range correlations in nuclear physics, focusing on lambda particles, bionic EFT, and charge symmetry breaking. Gain insights into methodology, applications, and experimental data analysis.

Explore Boson droplets near unitarity, examining free-body parameters, effective range expansion, binding energy, and related concepts in few-body physics. Insights from atomic and nuclear physics perspectives.

Exploring helium dimers and trimers: from structural imaging to ultrafast dynamics visualization, focusing on few-body physics near unitarity and its implications across various scientific disciplines.

Explore bosons and multi-component fermions near unitarity, focusing on few-body physics challenges in atomic and nuclear systems, with insights on universality and organizing principles.

Explore the connection between gas-embedded binaries, stellar evolution, and gravitational waves. Gain insights into supermassive black holes and merging binaries in this comprehensive lecture.

Explore gravitational wave modeling and its impact on physics, connecting field theory, relativity, and scattering amplitudes. Learn about emerging tools and techniques for next-gen experiments.

Exploring twistor amplitudes in gravitational wave modeling, connecting field theory and classical relativity to advance precision in gravitational wave signal interpretation and new physics searches.

Explores circumbinary disks across stellar and black hole binary systems, discussing gas evolution, observational signatures, and numerical modeling techniques to understand these complex astrophysical phenomena.

Explore orbital evolution in binary systems, from stars to black holes. Learn about circumbinary gas, observational signatures, and numerical modeling techniques across astrophysical scales.