Flow and Equation of State of nuclear matter at $\mathbf{E_{\mathrm{kin}}}$/A=0.25-1.5 GeV with the SMASH transport approach

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Main Authors: Tarasovičová, Lucia Anna, Mohs, Justin, Andronic, Anton, Elfner, Hannah, Kampert, Karl-Heinz
Format: Preprint
Published: 2024
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author Tarasovičová, Lucia Anna
Mohs, Justin
Andronic, Anton
Elfner, Hannah
Kampert, Karl-Heinz
author_facet Tarasovičová, Lucia Anna
Mohs, Justin
Andronic, Anton
Elfner, Hannah
Kampert, Karl-Heinz
contents We present a comparison of directed and elliptic flow data by the FOPI collaboration in Au--Au, Xe--CsI, and Ni--Ni collisions at beam kinetic energies from 0.25 to 1.5 GeV per nucleon to simulations using the SMASH hadronic transport model. The Equation of State is parameterized as a function of nuclear density and momentum dependent potentials are newly introduced in SMASH. With a statistical analysis, we show that within the present status of the SMASH transport model, the collective flow data at lower energies is in the best agreement with a soft momentum dependent potential, while the elliptic flow at higher energies requires a harder momentum dependent Equation of State.
format Preprint
id arxiv_https___arxiv_org_abs_2405_09889
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Flow and Equation of State of nuclear matter at $\mathbf{E_{\mathrm{kin}}}$/A=0.25-1.5 GeV with the SMASH transport approach
Tarasovičová, Lucia Anna
Mohs, Justin
Andronic, Anton
Elfner, Hannah
Kampert, Karl-Heinz
Nuclear Theory
We present a comparison of directed and elliptic flow data by the FOPI collaboration in Au--Au, Xe--CsI, and Ni--Ni collisions at beam kinetic energies from 0.25 to 1.5 GeV per nucleon to simulations using the SMASH hadronic transport model. The Equation of State is parameterized as a function of nuclear density and momentum dependent potentials are newly introduced in SMASH. With a statistical analysis, we show that within the present status of the SMASH transport model, the collective flow data at lower energies is in the best agreement with a soft momentum dependent potential, while the elliptic flow at higher energies requires a harder momentum dependent Equation of State.
title Flow and Equation of State of nuclear matter at $\mathbf{E_{\mathrm{kin}}}$/A=0.25-1.5 GeV with the SMASH transport approach
topic Nuclear Theory
url https://arxiv.org/abs/2405.09889