
Explore tensor network states, their boundary variety, and optimization techniques for finding ground states of local Hamiltonians in quantum many-body systems.

Explore mathematical theories for metamaterials, bridging condensed matter theory and subwavelength physics. Gain insights into wave manipulation and nanotechnology advancements.

Explore black hole thermodynamics, from foundational concepts to contemporary developments, with insights into its challenges to fundamental physics.

Explore the Sachdev-Ye-Kitaev model's impact on quantum phase transitions in metals and its connection to strange metal states in correlated electron compounds and black hole theory.

Explore quantum symmetry through moduli spaces of flat G-bundles, examining cluster Poisson structures and their quantization to uncover connections with quantum groups and representations.

Explore quantum field theory in curved spacetime, examining its principles, applications, and mathematical challenges in the context of general relativity and black hole phenomena.

Explore quantum gravity's impact on our universe, including predictions about dark energy and testable hypotheses derived from string theory.

Explore the factorisation puzzle in AdS/CFT, examining how spacetime wormholes contribute to Hilbert space factorisation in two-sided black holes and its implications for holography.

Explore generalized symmetries in quantum field theory and quantum gravity using string theory's extra dimensions, uncovering new physical objects and tracking symmetry fates.

Explore quantum spacetime fluctuations in gravitational wave observatories, including Hawking emission, detector noise, and cosmic glitches near cosmological horizons.

Explore efficient representation of mixed states in noisy quantum circuits using locally purified density operators, addressing challenges and insights in open quantum systems simulation.

Explore measurement-induced criticality in quantum systems, examining non-local impacts of quantum collapse and novel collective effects. Learn about experimental challenges and innovative diagnostic approaches.

Explore supercharge cohomology in holographic CFTs, classifying into monotone and fortuitous types, and examine their connections to smooth geometries and black holes in N=4 super-Yang-Mills theory.

Explore recent developments in 4d F-theory geometric landscape, including massive spectrum and new base ensemble measures.

Explore partial entanglement entropy geometrization in AdS/CFT, examining PEE threads, network formation, and bulk geometry reconstruction using novel approaches.

Explore quantum gravity duals of CFTs through conformal bootstrap, topological symmetries, and tensor networks. Discover how 2D Liouville theory illustrates building quantum gravitational path integrals using BCFT correlations.

Explore equivariant K-theory's role in realizing affine i-quantum groups, focusing on type C generalizations and constructing simple/standard modules.

Explore the 'problem of time' in quantum gravity and critically examine the thermal time hypothesis as a potential solution, delving into concepts of equilibrium and statistical states in timeless contexts.

Explore a novel correspondence between stochastic processes and quantum theory, offering new insights into quantum mechanics and potential applications for quantum computing.

Explore Bohmian quantum gravity's impact on cosmic acceleration, examining modified Friedmann equations and wave functions that explain universal expansion without a cosmological constant.

Explore quantum thermodynamics' impact on the second law of thermodynamics, examining its evolution and implications for small systems and quantum phenomena.