期刊名：Quantum Reports

期刊主页：https://www.mdpi.com/journal/quantumrep

量子引力、宇宙学与量子场论的研究前沿正经历深刻变革，传统几何量子化方案与标准模型框架不断受到理论与实验层面的双重挑战。本次文献清单汇集了发表于 Quantum Reports 的系列研究，系统展示了这一领域在多个关键方向上的突破性探索：从量子引力计算的普朗克计算机模型、超流体真空理论中暴胀—暗能量过渡的统一描述，到时空几何不应被量子化的因果介质方案，以及量子力学与时空内在关联的全息谱效应和有限作用量量子波的几何起源。研究亦涵盖正则黑洞背景的量子信息应用、仿射场论的连续极限、Hubbard模型的量子经典算法、贝尔不等式推导的隐场阻碍、量子场论的“量子性”反思、代数曲率视角下的重整化歧义，以及宇宙学动力学中的曲率、记忆与涌现时间等深层议题，共同勾勒出量子基础理论与宇宙物理之间正在形成的新综合图景。

1. The Planck Computer Is the Quantum Gravity Computer: We Live inside a Gigantic Computer, the Hubble Sphere Computer?

普朗克计算机就是量子引力计算机：我们生活在一个巨大的计算机”哈勃球计算机”内部吗？

https://www.mdpi.com/2624-960X/6/3/32

Haug, E.G. The Planck Computer Is the Quantum Gravity Computer: We Live inside a Gigantic Computer, the Hubble Sphere Computer? Quantum Rep. 2024, 6, 482–492.

2. Transition from Inflation to Dark Energy in Superfluid Vacuum Theory

在超流体真空理论中从暴胀到暗能量的过渡

https://www.mdpi.com/2624-960X/7/1/7

Zloshchastiev, K.G. Transition from Inflation to Dark Energy in Superfluid Vacuum Theory. Quantum Rep. 2025, 7, 7.

3. On the Holographic Spectral Effects of Time-Interval Subdivisions

时间区间细分的全息光谱效应

https://www.mdpi.com/2624-960X/7/1/14

Nelson-Isaacs, S. On the Holographic Spectral Effects of Time-Interval Subdivisions. Quantum Rep. 2025, 7, 14.

4. Why Geometry Should Not Be Quantized: A Causal-Medium Unification of Gravity and Quantum Mechanics

为什么几何不应被量子化：引力和量子力学的因果介质统一

https://www.mdpi.com/2624-960X/8/1/2

Li, B. Why Geometry Should Not Be Quantized: A Causal-Medium Unification of Gravity and Quantum Mechanics. Quantum Rep. 2026, 8, 2.

5. A Possible Connection Between Quantum Mechanics and Spacetime

量子力学与时空之间可能存在的联系

https://www.mdpi.com/2624-960X/8/1/21

Wang, H.; Wang, J. A Possible Connection Between Quantum Mechanics and Spacetime. Quantum Rep. 2026, 8, 21.

6. A Single-Scale Regular Black-Hole Background for Black-Hole Quantum Information

用于黑洞量子信息的单尺度规则黑洞背景

https://www.mdpi.com/2624-960X/8/2/53

Albanese, L. A Single-Scale Regular Black-Hole Background for Black-Hole Quantum Information. Quantum Rep. 2026, 8, 53.

7. Continuum Limit of the Green Function in Scaled Affine  Quantum Euclidean Covariant Relativistic Field Theory

缩放仿射 φ44 量子欧几里得协变相对论场论中格林函数的连续极限

https://www.mdpi.com/2624-960X/6/2/10

Fantoni, R. Continuum Limit of the Green Function in Scaled Affine  Quantum Euclidean Covariant Relativistic Field Theory. Quantum Rep. 2024, 6, 134–141.

8. Quantum Classical Algorithm for the Study of Phase Transitions in the Hubbard Model via Dynamical Mean-Field Theory

基于动力学平均场理论研究Hubbard模型相变的量子经典算法

https://www.mdpi.com/2624-960X/7/2/18

Baul, A.; Fotso, H.; Terletska, H.; Tam, K.-M.; Moreno, J. Quantum Classical Algorithm for the Study of Phase Transitions in the Hubbard Model via Dynamical Mean-Field Theory. Quantum Rep. 2025, 7, 18.

9. Contextual Hidden Fields Preclude the Derivation of Bell-Type Inequalities

上下文隐场阻碍了贝尔型不等式的推导

https://www.mdpi.com/2624-960X/7/3/29

López, Á.G. Contextual Hidden Fields Preclude the Derivation of Bell-Type Inequalities. Quantum Rep. 2025, 7, 29.

10. Is Quantum Field Theory Necessarily “Quantum”?

量子场论一定是“量子”的吗？

https://www.mdpi.com/2624-960X/7/4/53

Shojaei-Fard, A. Is Quantum Field Theory Necessarily “Quantum”? Quantum Rep. 2025, 7, 53.

11. Geometric Origin of Quantum Waves from Finite Action

有限作用量下的量子波的几何起源

https://www.mdpi.com/2624-960X/7/4/61

Li, B. Geometric Origin of Quantum Waves from Finite Action. Quantum Rep. 2025, 7, 61.

12. Quantum Anomalies as Intrinsic Algebraic Curvature: A Unified AQFT Interpretation of Renormalization Ambiguities

量子奇异性作为固有代数曲率：对重整化歧义的统一代数量子场论解释

https://www.mdpi.com/2624-960X/8/1/3

Patrascu, A.T. Quantum Anomalies as Intrinsic Algebraic Curvature: A Unified AQFT Interpretation of Renormalization Ambiguities. Quantum Rep. 2026, 8, 3.

13. Quantum Omni-Synthesis I: Core Field-Theoretical Framework

量子全能合成 I：核心场论框架

https://www.mdpi.com/2624-960X/8/1/15

Acha, S. Quantum Omni-Synthesis I: Core Field-Theoretical Framework. Quantum Rep. 2026, 8, 15.

14. Curvature, Memory and Emergent Time in Cosmological Dynamics

宇宙学动力学中的曲率、记忆与涌现时间

https://www.mdpi.com/2624-960X/8/1/20

Del Amo Castillo, I. Curvature, Memory and Emergent Time in Cosmological Dynamics. Quantum Rep. 2026, 8, 20.

15. Fixed Spectral Data and the Dynamics of Spacetime Geometry

固定光谱数据与时空几何动力学

https://www.mdpi.com/2624-960X/8/2/31

Gurevich, J.Y. Fixed Spectral Data and the Dynamics of Spacetime Geometry. Quantum Rep. 2026, 8, 31.

Quantum Reports（ISSN 2624-960X） 创刊于2019年，是一个国际同行评审的开放获取量子科学期刊，由 MDPI 每季度在线出版。发文范围囊括所有量子子领域，从基础量子理论到广泛的应用。Quantum Reports 目的是鼓励科学家尽可能详细地发表他们的实验和理论结果。因此，该期刊对论文的长度没有限制。应提供完整的实验细节，以便可以重现结果。截至目前，期刊已被Scopus、ESCI（Web of Science）等重要数据库收录。

Prof. Dr. Lajos Diósi

Editor-in-Chief

Wigner Research Center for Physics, Hungary

2025 Impact Factor: 1.8

2024 Citescore 2.7

Time to First Decision: 20.3 Days

Acceptance to Publication: 3.5 Days