3949 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 studies the quasinormal modes of rotating quantum-corrected black holes using a hyperboloidal framework and pseudo-spectral method, then demonstrates that employing informative priors in a methodological parameter estimation pipeline significantly tightens constraints on the quantum correction parameter and reveals deviations from the standard Kerr model.
This paper investigates a relativistic self-gravitating equilibrium system with slow steady flow by developing a perturbative framework to derive differential equations for structural corrections and proposing a new condition that uniquely determines the unconventional form of the entropy current and its leading-order parameter.
This paper demonstrates that while naive extrapolations of microphysical absorption rates suggest ultralight bosons could rapidly drain neutron star rotational energy via superradiance, accounting for collective multiple-scattering effects in dense nuclear matter significantly suppresses these rates, thereby reconciling stellar cooling constraints with superradiance stability.
This paper demonstrates that the entanglement wedge cross-section (EWCS) serves as a superior and sensitive probe for diagnosing both effective metal-insulator and Hawking-Page transitions in Einstein-Born-Infeld massive gravity, revealing a universal critical exponent of 1/3 for geometry-related quantities near second-order phase transitions.
This paper demonstrates that the VCDM framework of minimally modified gravity, when combined with current cosmological data and an extended neutrino sector, robustly accommodates neutrino constraints while predicting a stable late-time dark energy transition that significantly alleviates the tension.
This paper demonstrates that the Wada property of escape basins in pp-wave spacetimes with polynomial profiles remains robust as the polynomial degree increases, while the associated basin and boundary entropies grow monotonically, confirming that the boundaries become increasingly fractal and unpredictable.
This paper explores flat FLRW metric-affine cosmology with symmetric matter and hypermomentum, proposing that a dark dust fluid carrying spin hypermomentum exhibits a dynamical effective equation of state that could potentially explain recent DESI DR2 observations.
This paper investigates the dynamical evolution of a Schwarzschild black hole in Modified Gravity under scalar gravitational waves, demonstrating how non-thermal particle creation and the formation of stable zero-temperature remnants resolve the black hole information paradox while preserving the Generalized Second Law of thermodynamics.
This paper employs lattice simulations to demonstrate that nonperturbative scalar dynamics during ultra-slow-roll inflation can significantly alter the amplitude and spectral shape of scalar-induced gravitational waves, revealing that standard semi-analytical perturbative methods often fail to provide reliable predictions in regimes of large non-Gaussianity.
This study investigates the impact of Hawking radiation in Schwarzschild spacetime on quantum imaginarity, revealing that while nonlocal advantage is suppressed in the physically accessible region and absent in the inaccessible region, assisted imaginarity distillation exhibits opposite monotonic trends in fidelity between these two regions as temperature increases.