用反应平面和双粒子累积量方法计算大型强子对撞机重离子碰撞的方位流

IF 0.4 Q4 PHYSICS, PARTICLES & FIELDS
D. Myagkov, S. Petrushanko
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引用次数: 0

摘要

蒙特卡罗模型被广泛用于研究相对论性重离子碰撞,即通过分析二次粒子的方位分布来研究极端条件下的物质。HYDJET++就是这样一个模型。虽然最初依靠真反应面法进行方位流计算,但这种方法在实验比较中是不切实际的。我们通过在实验中使用的其他方法,包括反应面和累积量技术,增强了HYDJET++。利用这一更新后的模型,我们分别模拟了在cm秒内每核子对\(\sqrt {{{s}_{{NN}}}} = 5.02\) TeV和\(\sqrt {{{s}_{{NN}}}} = 5.44\) TeV的Pb-Pb和Xe-Xe碰撞,通过三种方法计算了\({{v}_{2}}\)和\({{v}_{3}}\)的流动,并与CMS数据进行了比较。这些改进完善了发电机的适用性,突出了需要进一步优化的领域,并扩大了其未来研究的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Calculations of Azimuthal Flows in Collisions of Heavy Ions Using the Reaction Plane and Two-Particle Cumulant Methods at the HYDJET++ for LHC Energies

Calculations of Azimuthal Flows in Collisions of Heavy Ions Using the Reaction Plane and Two-Particle Cumulant Methods at the HYDJET++ for LHC Energies

Monte Carlo models are widely used to study relativistic heavy-ion collisions, that is matter under extreme conditions through the analysis of azimuthal distributions of secondary particles. HYDJET++ is one such model. While initially relying on the true reaction plane method for azimuthal flow calculations, this approach is impractical for experimental comparisons. We enhanced HYDJET++ by implementing additional methods used in experiments, including reaction plane and cumulant techniques. Using this updated model, we simulated Pb–Pb and Xe–Xe collisions at \(\sqrt {{{s}_{{NN}}}} = 5.02\) TeV and \(\sqrt {{{s}_{{NN}}}} = 5.44\) TeV per nucleon pair in c.m.s respectively, calculating \({{v}_{2}}\) and \({{v}_{3}}\) flows via three methods and comparing them with each other and CMS data. These improvements refine the generator’s applicability, highlight areas requiring further optimization, and expand its potential for future research.

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来源期刊
Physics of Particles and Nuclei Letters
Physics of Particles and Nuclei Letters PHYSICS, PARTICLES & FIELDS-
CiteScore
0.80
自引率
20.00%
发文量
108
期刊介绍: The journal Physics of Particles and Nuclei Letters, brief name Particles and Nuclei Letters, publishes the articles with results of the original theoretical, experimental, scientific-technical, methodological and applied research. Subject matter of articles covers: theoretical physics, elementary particle physics, relativistic nuclear physics, nuclear physics and related problems in other branches of physics, neutron physics, condensed matter physics, physics and engineering at low temperatures, physics and engineering of accelerators, physical experimental instruments and methods, physical computation experiments, applied research in these branches of physics and radiology, ecology and nuclear medicine.
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