3993 papers
Quantum gravity represents the frontier where the very large meets the very small, attempting to unify Einstein's theory of gravity with the strange rules of quantum mechanics. This field explores the fundamental fabric of spacetime, seeking to understand how the universe behaves at its most extreme scales, from the heart of black holes to the moment of the Big Bang. Because these concepts often involve complex mathematics, they can feel distant to non-specialists, yet they hold the key to a complete picture of physical reality.
At Gist.Science, we bridge this gap by processing every new preprint in this category directly from arXiv. Our team provides both plain-language explanations and detailed technical summaries for each paper, ensuring that groundbreaking research is accessible to everyone, from curious students to seasoned researchers. Below are the latest papers in quantum gravity, offering fresh insights into the nature of our cosmos.
This paper uses a (3+1)-dimensional holographic model to systematically investigate the low-energy collective dynamics of fractonic solids, identifying various hydrodynamic excitations and demonstrating that the subdiffusive mode is inherently protected by crystal-dipole symmetry.
This paper demonstrates that applying shear strain to holographic axion black holes eliminates the inner Cauchy horizon, causing the interior to collapse into a spacelike singularity characterized by anisotropic Kasner-like dynamics or domain wall solutions.
This paper investigates how the ModMax parameter affects test particle dynamics and Quasi-Periodic Oscillations (QPOs) around black holes, ultimately using MCMC analysis on observational data to place constraints on the parameter.
This paper presents a high-order calculation of the conservative radial action and scattering angle for two non-spinning bodies in general relativity up to , utilizing a scattering-amplitude framework and improved integration-by-parts algorithms to include second-order self-force effects without truncation.
This paper proposes a technique using temporal anticoincidence to suppress non-coincident terrestrial noise transients in gravitational-wave detectors, thereby improving search sensitivity and reducing background noise in the detection of transient signals like binary black hole mergers.
This paper demonstrates that a moving boundary in a Rindler spacetime induces quantized modes for Klein-Gordon and Maxwell fields, a phenomenon mathematically characterized by an anomalous potential and linked to particle production via Bogoliubov transformations.
This paper investigates how a specific class of parity-violating scalar-tensor theories (the "Qi-Xiu" Lagrangians) generates circularly polarized primordial and scalar-induced gravitational waves by either modifying tensor propagation at linear order or introducing parity-violating source terms at second order.
This paper investigates how pulsar timing array data can constrain symmetric teleparallel gravity by analyzing modified damping in gravitational wave amplitudes, finding that while current data is consistent with General Relativity, future observatories like the Square Kilometre Array (SKA) will have the precision to potentially distinguish gravity from standard theory.
The paper investigates whether Hopf algebra deformations of a qubit's Hamiltonian can lead to a physically viable Lindblad-like decoherence, ultimately concluding that such deformations either result in standard von Neumann dynamics or fail to produce a valid Lindblad evolution.
The paper proposes that dark matter originates from primordial black holes formed by regions of eternal inflation that failed to reheat, a mechanism that predicts a specific spectrum of curvature perturbations and a detectable stochastic gravitational wave background.