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Hauptverfasser: Roch, H., Pihan, G., Monnai, A., Ryu, S., Senthilkumar, N., Staudenmaier, J., Elfner, H., Schenke, B., Putschke, J. H., Shen, C., Bass, S. A., Chartier, M., Chen, Y., Datta, R., Dolan, R., Du, L., Ehlers, R., Fries, R. J., Gale, C., Hangal, D. A., Jacak, B. V., Jacobs, P. M., Jeon, S., Ji, Y., Jonas, F., Kordell II, M., Kumar, A., Kunnawalkam-Elayavalli, R., Latessa, J., Lee, Y. -J., Luzum, M., Majumder, A., Mak, S., Mankolli, A., Martin, C., Mehryar, H., Mengel, T., Nattrass, C., Norman, J., Ockleton, M., Parker, C., Paquet, J. -F., Roland, G., Schwiebert, L., Sengupta, A., Singh, M., Sirimanna, C., Soltz, R. A., Soudi, I., Tachibana, Y., Velkovska, J., Vujanovic, G., Wang, X. -N., Wu, X., Zhang, J., Zhao, W.
Format: Preprint
Veröffentlicht: 2025
Schlagworte:
Nuclear Theory
High Energy Physics - Phenomenology
Online-Zugang:https://arxiv.org/abs/2510.06996
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author Roch, H.
Pihan, G.
Monnai, A.
Ryu, S.
Senthilkumar, N.
Staudenmaier, J.
Elfner, H.
Schenke, B.
Putschke, J. H.
Shen, C.
Bass, S. A.
Chartier, M.
Chen, Y.
Datta, R.
Dolan, R.
Du, L.
Ehlers, R.
Fries, R. J.
Gale, C.
Hangal, D. A.
Jacak, B. V.
Jacobs, P. M.
Jeon, S.
Ji, Y.
Jonas, F.
Kordell II, M.
Kumar, A.
Kunnawalkam-Elayavalli, R.
Latessa, J.
Lee, Y. -J.
Luzum, M.
Majumder, A.
Mak, S.
Mankolli, A.
Martin, C.
Mehryar, H.
Mengel, T.
Nattrass, C.
Norman, J.
Ockleton, M.
Parker, C.
Paquet, J. -F.
Roland, G.
Schwiebert, L.
Sengupta, A.
Singh, M.
Sirimanna, C.
Soltz, R. A.
Soudi, I.
Tachibana, Y.
Velkovska, J.
Vujanovic, G.
Wang, X. -N.
Wu, X.
Zhang, J.
Zhao, W.
author_facet Roch, H.
Pihan, G.
Monnai, A.
Ryu, S.
Senthilkumar, N.
Staudenmaier, J.
Elfner, H.
Schenke, B.
Putschke, J. H.
Shen, C.
Bass, S. A.
Chartier, M.
Chen, Y.
Datta, R.
Dolan, R.
Du, L.
Ehlers, R.
Fries, R. J.
Gale, C.
Hangal, D. A.
Jacak, B. V.
Jacobs, P. M.
Jeon, S.
Ji, Y.
Jonas, F.
Kordell II, M.
Kumar, A.
Kunnawalkam-Elayavalli, R.
Latessa, J.
Lee, Y. -J.
Luzum, M.
Majumder, A.
Mak, S.
Mankolli, A.
Martin, C.
Mehryar, H.
Mengel, T.
Nattrass, C.
Norman, J.
Ockleton, M.
Parker, C.
Paquet, J. -F.
Roland, G.
Schwiebert, L.
Sengupta, A.
Singh, M.
Sirimanna, C.
Soltz, R. A.
Soudi, I.
Tachibana, Y.
Velkovska, J.
Vujanovic, G.
Wang, X. -N.
Wu, X.
Zhang, J.
Zhao, W.
contents We employ the SMASH transport model to provide event-by-event initial conditions for the energy-momentum tensor and conserved charge currents in hydrodynamic simulations of relativistic heavy-ion collisions. We study the fluctuations and dynamical evolution of three conserved charge currents (net baryon, net electric charges, and net strangeness) with a 4D lattice-QCD-based equation of state, NEOS-4D, in the hydrodynamic phase. Out-of-equilibrium corrections at the particlization are generalized to finite densities to ensure the conservation of energy, momentum, and the three types of charges. These theoretical developments are integrated within the X-SCAPE code as a unified framework for studying the nuclear matter properties in the Beam Energy Scan program.
format Preprint
id arxiv_https___arxiv_org_abs_2510_06996
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Transport-based initial conditions for heavy-ion collisions at finite densities
Roch, H.
Pihan, G.
Monnai, A.
Ryu, S.
Senthilkumar, N.
Staudenmaier, J.
Elfner, H.
Schenke, B.
Putschke, J. H.
Shen, C.
Bass, S. A.
Chartier, M.
Chen, Y.
Datta, R.
Dolan, R.
Du, L.
Ehlers, R.
Fries, R. J.
Gale, C.
Hangal, D. A.
Jacak, B. V.
Jacobs, P. M.
Jeon, S.
Ji, Y.
Jonas, F.
Kordell II, M.
Kumar, A.
Kunnawalkam-Elayavalli, R.
Latessa, J.
Lee, Y. -J.
Luzum, M.
Majumder, A.
Mak, S.
Mankolli, A.
Martin, C.
Mehryar, H.
Mengel, T.
Nattrass, C.
Norman, J.
Ockleton, M.
Parker, C.
Paquet, J. -F.
Roland, G.
Schwiebert, L.
Sengupta, A.
Singh, M.
Sirimanna, C.
Soltz, R. A.
Soudi, I.
Tachibana, Y.
Velkovska, J.
Vujanovic, G.
Wang, X. -N.
Wu, X.
Zhang, J.
Zhao, W.
Nuclear Theory
High Energy Physics - Phenomenology
We employ the SMASH transport model to provide event-by-event initial conditions for the energy-momentum tensor and conserved charge currents in hydrodynamic simulations of relativistic heavy-ion collisions. We study the fluctuations and dynamical evolution of three conserved charge currents (net baryon, net electric charges, and net strangeness) with a 4D lattice-QCD-based equation of state, NEOS-4D, in the hydrodynamic phase. Out-of-equilibrium corrections at the particlization are generalized to finite densities to ensure the conservation of energy, momentum, and the three types of charges. These theoretical developments are integrated within the X-SCAPE code as a unified framework for studying the nuclear matter properties in the Beam Energy Scan program.
title Transport-based initial conditions for heavy-ion collisions at finite densities
topic Nuclear Theory
High Energy Physics - Phenomenology
url https://arxiv.org/abs/2510.06996

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