
Explore universal matter-wave interferometry across mass and complexity scales, delving into quantum aspects of gravity in laboratory settings.

Explore quantum aspects of gravity through levitating diamonds with nitrogen-vacancy centers, witnessing groundbreaking lab experiments in quantum physics.

Explore high-amplitude motion of massive oscillators to test quantum mechanics, witnessing quantum aspects of gravity in laboratory settings.

Explore underground tests of gravity-related wave function collapse, examining quantum aspects of gravity in laboratory settings.

Explore infinitesimal braidings and pre-Cartier bialgebras in this advanced mathematical physics seminar, delving into complex algebraic structures and their applications.

Explore graded geometric approaches to tensor hierarchies, delving into mathematical physics concepts with expert insights.

Explore quantum bounds for transport coefficients and their connection to the Fluctuation-Dissipation relation, with insights from high-energy physics and String Theory.

Explore quantum Ising model's interface dynamics, examining domain evolution, quantum nucleation, and false-vacuum decay. Discover connections to mathematics and classical statistical physics.

Explore the Casimir effect's connection to spectral geometry and microlocal analysis. Learn to define Casimir energy as an operator trace and compute it using boundary layer operator determinants.

Explore dispersion forces, van der Waals interactions, and Casimir-Polder effects, focusing on temperature dependence and quantum field theory challenges in describing material absorption.

Explore MaZe, a novel approach for simulating adiabatic systems in physics. Learn about its applications in first principles simulations, polarizable systems, and ionic transport studies.

Explore a new spacetime geometry incorporating quantum nonlocality into general relativity, examining implications for spin-1/2 fermions and the Born rule.

Explore Feynman propagators on curved spacetime, their construction, and connection to quantum states. Delve into microlocal techniques and their application to wave and Dirac-type operators.

Explore infrared finite scattering theory in QFT and quantum gravity, addressing IR divergences, memory effects, and challenges in constructing IR-finite S-matrices across various theories.

Explore Hadamard states for Maxwell fields through complete gauge fixing, delving into spectral theory and mathematical relativity concepts.

Explore new renormalisation group equations for curved spacetimes, focusing on perturbative algebraic quantum field theory and flow equations applicable to arbitrary globally hyperbolic spacetimes.

Explore semi-classical analysis of strong cosmic censorship in General Relativity. Delve into quantum effects on Cauchy horizons and their implications for determinism in black hole spacetimes.

Explore entanglement in Matrix Quantum Mechanics and its role in emergent geometry, holography, and string theory. Gain insights into recent developments and their implications for AdS/CFT.

Explore latest numerical simulations of D0-brane matrix model, confirming duality with type IIA superstring theory and uncovering new insights into M-theory and black holes.

Explore renormalization group and quantum error correction in tensor network models, deriving exact equations for wave functional scale dependence and discussing continuum network structures.

Explore emergent space-time and early universe cosmology from the BFSS matrix model, examining thermal fluctuations and cosmological perturbations without inflation.