429 papers
The subatomic world is a realm where matter behaves in ways that defy our everyday intuition, and this category explores the fundamental building blocks of our universe. From the intricate dance of quarks inside a proton to the strange properties of electrons, these studies reveal the deep rules that govern everything from the smallest particles to the largest stars.
At Gist.Science, we track every new preprint in this field as it appears on arXiv, ensuring you stay ahead of the curve. For each discovery, we provide both a clear, plain-language explanation of the core ideas and a detailed technical summary for those who want to dive deeper into the mathematics and methodology.
Below are the latest papers in Atom-Ph, offering fresh insights into the structure and behavior of the atomic scale.
This paper theoretically investigates the coherent propagation of resonant Bessel beams through Th-doped CaF crystals, demonstrating that their unique orbital angular momentum and non-uniform profiles can enhance excitation control and reveal the spatial distribution of nuclear quantization axes via nuclear forward scattering.
This paper presents a novel, scalable Fresnel zone plate design that combines the high resolution of static plates with the dynamic reconfigurability of spatial light modulators to generate versatile atomic waveguides ideal for ultracold atom Sagnac interferometry.
This paper presents a complete theoretical calculation of the muonic hydrogen (H) ground-state hyperfine splitting, incorporating direct quantum electrodynamic and recoil corrections alongside proton structure effects derived from hydrogen data, to yield a prediction of eV with precision exceeding 1 ppm.
This paper reports a 4-K cryogenic platform that utilizes high numerical aperture optics and dual-wavelength trapping to achieve 5000-second lifetimes and prepare defect-free arrays of up to 1024 atoms, significantly advancing prospects for large-scale quantum computing.
This paper introduces a symmetrization scheme that preserves the Mermin-Wagner theorem to resolve pseudo phase transitions in the 2D Hubbard model, applying it within a GW-covariance framework to accurately calculate Green's and spin-spin correlation functions that align with DQMC benchmarks while satisfying fundamental many-body relations.
This paper presents a high-resolution magnetic imaging system utilizing a free-induction-decay optically pumped magnetometer with a double-pass optical configuration and scanning micromirror to achieve sub-millimeter spatial resolution and sub-picotesla sensitivity, successfully enabling noninvasive diagnostics of integrated circuits and batteries.
This paper presents an all-optical method using double dressing to create spherical shell-shaped traps for ultracold atoms in microgravity, demonstrating a realistic configuration for rubidium ensembles that achieves strong transverse confinement with minimal heating.
This paper challenges the conventional continuous-medium approximation in atomic-ensemble sensing by introducing a discrete-atom framework that reveals an intrinsic "atomic granularity noise" (AGN), demonstrating that increasing optical probe power can paradoxically degrade sensitivity and establishing a fundamental limit where quantum-enhanced metrology fails once the photon-to-atom flux ratio exceeds a critical threshold.
This paper establishes a complete spectroscopic roadmap for optical cycling in singly ionized thulium-169 and characterizes a metastable state as a robust qubit candidate, thereby laying the foundational groundwork for advanced quantum applications.
This paper challenges the century-old Lindemann-Hinshelwood mechanism by demonstrating that barrierless termolecular reactions, such as ion-atom recombination, are fundamentally governed by direct three-body dynamics rather than sequential bimolecular encounters, a finding that resolves long-standing theory-experiment discrepancies and establishes a new framework for understanding these processes across various scientific fields.