530 papers
This paper provides physics motivations and expositions on tangential structures and invertible field theories to support the construction of fully local 3-dimensional Chern-Simons theories using the cobordism hypothesis, as detailed in a recent collaboration with Claudia Scheimbauer.
This paper investigates the geodesic structure, shadow, thermodynamics, and Hawking radiation of a dyonic ModMax black hole within Kalb-Ramond gravity coupled to a cloud of strings, demonstrating how the interplay of nonlinear electrodynamics, Lorentz violation, and string sources modifies key observables and produces a phenomenology distinct from standard Reissner-Nordström black holes.
This paper presents a systematic investigation of one-loop mass corrections for Type II string massive higher-spin states on the first Regge trajectory, deriving closed-form expressions for the relevant integrals, regularizing infrared divergences via the -prescription, and computing mass shifts up to level while speculating on random matrix theory governing the resulting mass matrix.
This paper utilizes the Euclidean Gravity approach to demonstrate that spatially varying near-horizon temperature fluctuations in a Schwarzschild Black Hole are intrinsically linked to near-horizon supertranslations, allowing the derivation of temperature-dependent corrections to the free energy and a microscopic partition function that describe low-energy horizon physics as a sum over these supertranslations.
This paper formulates a quasi-local analogue of the first law of black hole thermodynamics for general closed marginally trapped surfaces in arbitrary spacetimes, deriving a balance law that relates energy variations to heat and work contributions without relying on a preferred horizon worldtube.
This paper establishes a systematic framework using stochastic path-integral formalism to quantify time irreversibility and entropy production in non-Hermitian Model A field theories, demonstrating that the local entropy production rate is determined by the anti-Hermitian component of the dynamics and localizes at interfaces in non-uniform states.
This paper extends the study of booklet wormholes as the holographic dual of the GHZ state by demonstrating that their symmetry necessitates special bulk Killing vectors and unprecedented quantum non-local junction conditions, while also proposing a mechanism to render them traversable through boundary deformations that distribute information via entanglement.
This paper demonstrates that modified Geometrothermodynamics (GTD) metrics, unlike their conventional counterparts, consistently respect physical boundaries of the thermodynamic phase space in AdS spacetime and across different ensembles when applied to Bardeen AdS black holes, thereby establishing the framework's robustness and universality.
This paper demonstrates that autoparallel curves associated with torsion-free, non-metric-compatible affine connections can be derived from a variational principle by explicitly constructing an action functional through the systematic solution of the inverse problem of the calculus of variations and the associated Helmholtz conditions.
This paper employs the Basis Light-Front Quantization framework to provide the first theoretical predictions of kaon subleading-twist transverse-momentum-dependent parton distribution functions by explicitly accounting for the interference between quark-antiquark and quark-antiquark-gluon Fock sectors, while also presenting twist-2 and twist-3 collinear parton distribution functions that align well with recent global analyses.
Using the gradient flow exact renormalization group (GFERG) within the large approximation, this paper demonstrates that a manifestly gauge-invariant non-perturbative ansatz for the 1PI Wilson action in quantum electrodynamics preserves exact gauge invariance under renormalization group flow, yielding gauge-invariant critical exponents and an infrared fixed point action for spacetime dimensions .
This paper investigates the quantum stability of a timelike topological wormhole by computing the one-loop backreaction of a massive scalar field, finding that depending on finite counterterms, quantum effects can either stabilize or destabilize the structure while preserving its traversability.
This paper presents the first systematic study of early-to-late cosmic evolution in gravity, demonstrating that a well-motivated model constrained by Big-Bang Nucleosynthesis bounds and supernova data successfully reproduces the observed late-time acceleration with quintessence-like behavior while remaining consistent with early-time physics.
This paper proposes an analytic, non-singular slow-roll inflation model where the conformal anomaly mechanism resolves the classical pressure singularity, generates extreme particle creation for reheating without inflaton oscillations, and enhances primordial black hole formation and secondary gravitational waves.
This paper extends the standard gravitational baryogenesis framework beyond the spectator approximation by treating the curvature-matter coupling as a genuine variational problem, deriving the resulting modified field equations and cosmological dynamics to establish a consistent baseline for analyzing baryogenesis in both standard and modified gravity scenarios.
This paper presents a comprehensive analysis of a screened Simpson-Visser regular black hole with an asymptotically de-Sitter core, investigating its thermodynamic stability, geodesic structure, observational signatures like shadows and ISCOs, and topological properties to elucidate the interplay between its modified geometry and physical behavior.
This paper investigates the feasibility of formulating M-theory as a Sugawara-type current algebra based on , demonstrating that such a construction is possible for a rigid model with inert generalized coordinates while highlighting a critical degeneracy in the required bilinear form.
This paper introduces a covariant framework for dynamical reference frames with soft cutoffs to generalize actions beyond hard boundaries, demonstrating how specific constraints and pointwise dependencies restore diffeomorphism covariance, resolve charge ambiguities, and align Noether charges with holographic renormalization results in General Relativity.
This paper proposes leveraging high-energy colliders as quantum machines to advance quantum simulations in collider physics, specifically demonstrating applications in identifying causal structures within multiloop vacuum amplitudes and performing high-dimensional function integration to develop fully fledged quantum event generators.
This paper establishes the induced representation as the correct algebraic foundation for bulk reconstruction in flat holography by resolving scaling mismatches in three dimensions and explicitly constructing bulk local states in arbitrary dimensions, thereby providing a unified framework that recovers the correct massive propagator through a non-uniform flat limit of AdS constructions.