Entanglement as a Probe of Hadronization

IF 9 1区 物理与天体物理 Q1 PHYSICS, MULTIDISCIPLINARY Physical review letters Pub Date : 2025-03-19 DOI:10.1103/physrevlett.134.111902
Jaydeep Datta, Abhay Deshpande, Dmitri E. Kharzeev, Charles Joseph Naïm, Zhoudunming Tu
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Abstract

Recently, it was discovered that the proton structure at high energies exhibits maximal entanglement. This leads to a simple relation between the proton’s parton distributions and the entropy of hadrons produced in high-energy inelastic interactions, which has been experimentally confirmed. In this Letter, we extend this approach to the production of jets. Here, the maximal entanglement predicts a relation between the jet fragmentation function and the entropy of hadrons produced in jet fragmentation. We test this relation using the ATLAS Collaboration data on jet production at the Large Hadron Collider, and find a good agreement between the prediction based on maximal entanglement within the jet and the data. This study represents the first use of a quantum entanglement framework in an experimental study of the hadronization process, offering a new perspective on the transition from perturbative to nonperturbative QCD. Our results open the door to a more comprehensive understanding of the quantum nature of hadronization. Published by the American Physical Society 2025
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纠缠作为强子化的探针
近年来,人们发现质子结构在高能时表现出最大的纠缠态。这导致质子的部分子分布与高能非弹性相互作用中产生的强子熵之间的简单关系,这已被实验证实。在这封信中,我们将这种方法扩展到喷气机的生产。在这里,最大缠结预测了射流破碎函数与射流破碎中产生的强子熵之间的关系。我们利用大型强子对撞机(Large Hadron Collider)射流产生的ATLAS协作数据验证了这一关系,并发现基于射流内部最大纠缠的预测与数据之间有很好的一致性。这项研究代表了在强子化过程的实验研究中首次使用量子纠缠框架,为从微扰到非微扰QCD的转变提供了新的视角。我们的结果为更全面地理解强子化的量子性质打开了大门。2025年由美国物理学会出版
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来源期刊
Physical review letters
Physical review letters 物理-物理:综合
CiteScore
16.50
自引率
7.00%
发文量
2673
审稿时长
2.2 months
期刊介绍: Physical review letters(PRL)covers the full range of applied, fundamental, and interdisciplinary physics research topics: General physics, including statistical and quantum mechanics and quantum information Gravitation, astrophysics, and cosmology Elementary particles and fields Nuclear physics Atomic, molecular, and optical physics Nonlinear dynamics, fluid dynamics, and classical optics Plasma and beam physics Condensed matter and materials physics Polymers, soft matter, biological, climate and interdisciplinary physics, including networks
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