Annals of Physics物理学纪事

Annals of Physics(英文缩写 ANN PHYS-NEW YORK),ISSN 0003-4916,eISSN 1096-035X,中文译名:物理学纪事 是一本学术期刊。本页汇总该期刊的最新影响因子、分区信息以及最新收录于 PubMed 的文献,帮助您快速了解期刊全貌。

2026 年数据 · 影响因子
3.000
JCR 分区
Q2
CAS 分区
B3
近一年发文量
0
本站 PubMed 收录统计

发文量统计区间:2025-09-27 至 2026-09-27,按本站收录文献的发表日期统计。

ISSN: 0003-4916 · eISSN: 1096-035X · 缩写: ANN PHYS-NEW YORK ·中文: 物理学纪事

期刊介绍

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期刊简介

《Annals of Physics》是一本历史悠久的国际同行评议期刊,致力于发表物理学各领域的原创研究。其核心定位在于理论物理、数学物理以及量子力学基础等方向,尤其关注对物理原理的深入探讨和数学方法的严格应用。读者群体主要为理论物理学家、数学物理工作者及相关领域的研究生。该刊以发表长篇、系统的研究论文著称,在学术界享有较高声誉,为物理学家提供了交流深刻见解的平台。

研究方向

该刊涵盖理论物理、数学物理、量子力学、统计物理、场论、引力与宇宙学等方向。论文类型以原创研究论文为主,也接受综述性文章。主题包括量子基础、对称性、可积系统、凝聚态理论及粒子物理理论等。

期刊特色

研究取向偏重理论深度与数学严谨性,强调对物理问题的系统性分析。论文通常篇幅较长,推导详细,适合从事基础理论研究的学者和研究生阅读。该刊鼓励对物理基本原理的批判性思考,不追求短期热点。

投稿难度

投稿难度中等偏上,对理论深度和数学严谨性要求较高。建议作者确保工作具有足够的原创性和系统性,并清晰阐述物理动机。由于审稿人多为理论物理专家,论文需经得起严格推敲。

历年影响因子趋势

JCR 数据年份影响因子JCR 分区
20213.036Q2
20223.000Q2
20233.000Q2
20243.000Q2
20253.000Q2

Annals of Physics 最新收录文献

  1. JCR分区: Q2 CAS分区: B3 影响因子: 3

    1. Interaction-induced transition in the quantum chaotic dynamics of a disordered metal.

    作者:
    S V Syzranov, A V Gorshkov, V M Galitski
    日期:
    2019-01-01

    We demonstrate that a weakly disordered metal with short-range interactions exhibits a transition in the quantum chaotic dynamics when changing the temperature or the interaction strength. For weak interactions, the system displays exponential growth of the out-of-time-ordered correlator (OTOC) of the current operator. The Lyapunov exponent of this growth is temperature-independent in the limit of vanishing interaction. With increasing the temperature or the interaction strength, the system undergoes a transition to a non-chaotic behaviour, for which the exponential growth of the OTOC is absent. We conjecture that the transition manifests itself in the quasiparticle energy-level statistics and also discuss ways of its explicit observation in cold-atom setups.

  2. JCR分区: Q2 CAS分区: B3 影响因子: 3

    2. Two-dimensional lattice gauge theories with superconducting quantum circuits.

    作者:
    D Marcos, P Widmer, E Rico, M Hafezi, P Rabl, U-J Wiese, P Zoller
    日期:
    2014-12-01

    A quantum simulator of [Formula: see text] lattice gauge theories can be implemented with superconducting circuits. This allows the investigation of confined and deconfined phases in quantum link models, and of valence bond solid and spin liquid phases in quantum dimer models. Fractionalized confining strings and the real-time dynamics of quantum phase transitions are accessible as well. Here we show how state-of-the-art superconducting technology allows us to simulate these phenomena in relatively small circuit lattices. By exploiting the strong non-linear couplings between quantized excitations emerging when superconducting qubits are coupled, we show how to engineer gauge invariant Hamiltonians, including ring-exchange and four-body Ising interactions. We demonstrate that, despite decoherence and disorder effects, minimal circuit instances allow us to investigate properties such as the dynamics of electric flux strings, signaling confinement in gauge invariant field theories. The experimental realization of these models in larger superconducting circuits could address open questions beyond current computational capability.

  3. JCR分区: Q2 CAS分区: B3 影响因子: 3

    3. Physical scales in the Wigner-Boltzmann equation.

    作者:
    M Nedjalkov, S Selberherr, D K Ferry, D Vasileska, P Dollfus, D Querlioz, I Dimov, P Schwaha
    日期:
    2013-01-01

    The Wigner-Boltzmann equation provides the Wigner single particle theory with interactions with bosonic degrees of freedom associated with harmonic oscillators, such as phonons in solids. Quantum evolution is an interplay of two transport modes, corresponding to the common coherent particle-potential processes, or to the decoherence causing scattering due to the oscillators. Which evolution mode will dominate depends on the scales of the involved physical quantities. A dimensionless formulation of the Wigner-Boltzmann equation is obtained, where these scales appear as dimensionless strength parameters. A notion called scaling theorem is derived, linking the strength parameters to the coupling with the oscillators. It is shown that an increase of this coupling is equivalent to a reduction of both the strength of the electric potential, and the coherence length. Secondly, the existence of classes of physically different, but mathematically equivalent setups of the Wigner-Boltzmann evolution is demonstrated.

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