
Explore recent advancements in geometric foliations of asymptotically flat Riemannian manifolds and their connection to effective versions of the positive mass theorem. Delve into Schoen's conjecture and its implications.

Explore Macdonald/Koornwinder polynomial dualities, from spherical Double Affine Hecke Algebra on a torus to genus two Macdonald theory, with Philippe Di Francesco.

Explore recent developments in level set techniques for elliptic equations, focusing on spacetime harmonic functions and their applications to positive mass theorems and comparison geometry.

Explore S-duality for boundary conditions from a mathematical perspective, delving into advanced concepts in geometry and physics.

Explore Gelfand-Cetlin analogues in integrable systems with Lisa Jeffrey, delving into advanced mathematical concepts and their applications in toric topology.

Explore twist-programmable superconductivity in spin-orbit coupled bilayer graphene. Discover how Moiré materials offer tunable band structures, symmetry, and topology for investigating quantum phenomena.

Explore thermodynamic measurements of correlated states in magic angle twisted bilayer graphene, examining novel phenomena in moiré materials and their implications for quantum matter research.

Explore cutting-edge research on rhombohedral multilayer graphene presented by MIT's Long Ju, discussing recent advancements and potential applications in quantum materials and condensed matter physics.

Explore generalized Landau levels, quantized trace formulas, and their implications for non-Abelian Moiré fractionalization in this advanced physics lecture by Jie Wang from Temple University.

Explore the battle between String Theory and Quantum Field Theory, examining their approaches to explaining fundamental particles, forces, and the challenge of quantizing gravity.

Explore topological surface superconductivity in PtBi2 with Jeroen van den Brink. Gain insights into emergent phenomena in 2D quantum materials and their potential applications in advanced electronics and quantum computing.

Explore nanoscale interfaces for engineering strong electron-phonon coupling in quantum materials. Discover emergent phenomena in 2D synthetic structures and their potential applications.

Explore unconventional behavior in van der Waals bilayers, focusing on emergent electronic, magnetic, and topological phenomena in 2D synthetic quantum material structures.

Explores emergent phenomena in twisted bilayer graphene under magnetic fields, focusing on interacting narrow bands and their unique electronic properties.

Explore magnetism, Fermi surface reconstructions, and Chern insulators in twisted bilayer materials. Gain insights into emergent phenomena in 2D quantum structures.

Exploring the potential emergence of diffeomorphism from quantum field theory, delving into fundamental concepts at the intersection of quantum mechanics and general relativity.

Explore non-linear Hall effect in flatlands and chiral crystals, examining emergent phenomena in 2D quantum materials and their potential applications in advanced electronics.

Explore the mathematical concept of lifting torus actions to integrable systems, delving into advanced topics in Hamiltonian geometry and dynamical systems.

Explore nonsmooth approaches to Einstein's gravity theory and Lorentzian splitting theorems, focusing on trading linearity for ellipticity in geometric analysis.

Explore key concepts in mathematical general relativity with Princeton's Igor Rodnianski, addressing common questions and demystifying complex topics in this engaging lecture.

Explore the intersection of art and science through Conrad Shawcross's sculptures, challenging perceptual boundaries and merging geometry, philosophy, and optics in innovative mechanical creations.