3151 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 proposes a computational formulation of weak cosmic censorship in AdS/CFT, demonstrating that naked singularities in overcharged Reissner-Nordström-AdS spacetimes are excluded by an infinite holographic complexity cost arising from the divergent Gibbons-Hawking-York term at the singularity.
This paper demonstrates that gravitational waves generated by a classical source correspond to a quantum coherent state with Poissonian graviton statistics, validating the classical wave approximation for astrophysical systems while highlighting potential quantum effects in laboratory-scale scenarios.
This paper proposes a -symmetric mirror extension of the Standard Model within a bi-conformal gravity framework where spontaneous scale invariance breaking generates a light scalaron that naturally suppresses fifth-force couplings via symmetry, predicting a specific correlation between the force strength and scalar mass that aligns with next-generation experimental targets without relying on environmental screening mechanisms.
This paper investigates the phase diagrams of confining holographic theories on constant curvature manifolds with a -angle, revealing that negative curvature manifolds exhibit no phase transitions while positive curvature manifolds display both first and second-order phase transitions, alongside a proof of a holographic Vafa-Witten-like theorem for the case.
This paper demonstrates that the complex scaling method provides a unified and flexible framework for computing quasinormal mode frequencies of Schwarzschild and Reissner--Nordström black holes by transforming the outgoing-wave boundary condition into a non-Hermitian eigenvalue problem.
This study demonstrates that a torn accretion disk, formed by the disruption of a tilted disk around a Kerr black hole, fundamentally reshapes the inner shadow into exotic morphologies like bifurcated structures and crescents, thereby challenging the reliability of using standard shadow shapes as sole diagnostics for testing gravity theories.
This paper presents and validates new formulations of effective potentials that accurately approximate general relativistic effects in Newtonian core-collapse supernova simulations, demonstrating close agreement with fully general relativistic results when implemented in the Chimera and Flash-X codes.
This paper investigates the time evolution of a Nambu-Goto string coiling around a Kerr black hole, demonstrating through analytical and numerical methods that the string's interaction with the horizon generates a wave carrying extracted energy before settling into a static configuration with a total energy gain bounded by the string tension and black hole mass.
This paper investigates the timelike geodesics of massive test particles in asymptotically flat regular black holes supported by a phantom scalar field, demonstrating how the scalar charge deforms orbital dynamics, modifies critical radii like the ISCO, and induces perihelion precession corrections that can be constrained by Solar System observations.