164 papers
Using an ab initio approach combining the multi-reference in-medium similarity renormalization group and the quantum-number projected generator coordinate method with chiral two- plus three-nucleon interactions, this study systematically reproduces the low-lying properties of neutron-rich nuclei around and delineates the specific boundaries of the island of inversion.
This paper demonstrates that -decay half-lives serve as a novel and effective probe for the emergent magic number , revealing a pronounced shell gap in Calcium and Potassium isotopes while indicating its absence in Argon and Chlorine.
This paper demonstrates that the Richardson-Lucy algorithm effectively reconstructs three-dimensional pion emission sources from heavy-ion collision data, revealing their sensitivity to the initial neutron skin thickness and establishing the method as a viable tool for probing neutron density distributions in heavy nuclei.
This paper investigates how rotation influences the anisotropic shear viscosity and electrical conductivity of strongly interacting matter by employing kinetic theory within Hadron Resonance Gas and Nambu-Jona-Lasinio models, revealing that rotation suppresses chiral condensates, generates a sizable Hall-like conductivity, and reduces transport coefficients relative to isotropic cases.
This study presents a precision measurement of bremsstrahlung gamma rays in Sn+Sn collisions at 25 MeV/u using the CSHINE spectrometer, establishing a robust experimental framework to extract a high momentum tail fraction of and demonstrating the feasibility of probing short-range correlations in low-energy heavy-ion reactions.
The JETSCAPE Collaboration employs Bayesian Inference with Active Learning to determine the jet transport parameter in the Quark-Gluon Plasma by simultaneously analyzing inclusive hadron and jet suppression data from RHIC and LHC, revealing systematic tensions that offer new insights into jet transport physics.
This paper clarifies the origin of the geometric contribution to the superfluid density in neutron star inner crusts by deriving its dependence on the pairing gap within a multi-band framework and demonstrating that accounting for corrections to Bogoliubov quasi-particle states, rather than just Hartree-Fock single-particle states, is essential for its emergence.
This paper demonstrates that the Superfluid -Cluster Model, by rigorously treating Nambu-Goldstone zero modes, provides a unified description of low-spin six- condensate states and high-spin C($0_2^+^{12}0_2^+^{24}$Mg, identifying these states as a signature of nuclear supersolidity characterized by the coexistence of superfluidity and crystallinity.
This paper introduces BNN-I6, a Bayesian Neural Network framework trained on ENDF/B-VIII.1 data that accurately predicts (n,p) reaction cross sections with quantified uncertainties, outperforming TENDL-2023 benchmarks while identifying theoretical cross-sections as the dominant predictive feature.
This paper employs a Green's function approach within relativistic Hartree-Fock theory to demonstrate that the exact microscopical treatment of Coulomb exchange terms significantly reduces proton resonance energies and widths in isotones compared to phenomenological methods, while revealing clear shell effects in their evolution.
This paper presents a self-consistent coupled transport framework for open and hidden charm in a strongly coupled quark-gluon plasma, utilizing thermodynamic -matrix interactions constrained by lattice QCD to simultaneously describe charm-quark diffusion and charmonium kinetics, thereby successfully reproducing LHC Pb-Pb collision observables.
This paper analyzes the missing-energy spectrum from monochromatic neutrino-C interactions measured by the JSNS collaboration using a relativistic distorted-wave approach with an improved spectral function, while discussing the roles of nuclear recoil, final-state interactions, and neutrino event generators in describing low-energy nuclear effects.
This paper introduces a physics-embedded Bayesian neural network (PE-BNN) framework that integrates an energy-independent phenomenological shell factor and WAIC-based hyperparameter optimization to accurately predict energy-dependent fission product yields with fine structures and close agreement with known nuclear shell effects.
This paper presents a simultaneous analysis of measured and calculated data to predict the prompt fission neutron spectra (PFNS) of 233U(n,F) up to 20 MeV, establishing that while its spectrum is harder than 235U(n,F) but softer than 239Pu(n,F), the underlying pre-fission contributions and energy partitioning differ significantly due to fissility and competing reaction channels.
This paper summarizes the achievements of the MexNICA Collaboration, established in 2016 to coordinate Mexican participation in the MPD-NICA experiment at JINR, highlighting their contributions to the development of the miniBeBe trigger detector and advances in phenomenological and theoretical studies of the baryon-rich QCD phase diagram.
This paper generalizes the jet transport coefficient to a Lorentz-covariant diffusion tensor to describe momentum broadening in out-of-equilibrium media, revealing new energy-momentum correlations and demonstrating that non-equilibrium corrections can either enhance or reduce broadening depending on the initial distribution.
This paper demonstrates that shock-induced density and temperature perturbations in core-collapse supernovae and neutron star mergers can overcome electron mass damping to sustain the chiral plasma instability and generate substantial ohmic heating via the chiral magnetic effect.
This theoretical study predicts the existence of well-isolated, deeply bound atoms with narrow widths and demonstrates that reactions on light nuclei are a highly effective method for observing these states as discrete peaks, thereby offering new insights into -nucleus interactions.
This paper investigates how magnetic fields in heavy ion collisions induce quarkonia spin alignment through both orbital wave function distortion and spin state mixing, finding that the spin contribution dominates phenomenologically while the subleading orbital effect offers a unique probe for studying quarkonium structural changes.
This study utilizes the AMPT model to demonstrate that the elliptic flow of charged hadrons in 200 GeV d+Au collisions is primarily driven by early-stage partonic interactions rather than hadronic rescattering, successfully reproducing experimental trends and highlighting the significance of parton scattering mechanisms in asymmetric collision systems.