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Flow measurement in \(^{16}\) O+ \(^{16}\) O collisions is expected to complement the understanding of origins of collectivity in small systems. Furthermore, collisions of \(^{16}\) O nuclei will allow for probing observable signatures of nucleon-nucleon (NN) correlations predicted by nuclear theories. In this work, we study O+O collisions at \(\sqrt{s_{\text {NN}}} = 200\) GeV using A Multi-Phase Transport (AMPT) model considering both spherical and clustered nuclear geometries. We investigate the centrality dependence of the eccentricities ( \(\varepsilon _n\) ) and the anisotropic flow coefficients ( \(v_n\) ) characterizing initial spatial and final-state momentum anisotropy, respectively.

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Correlation Studies in O+O Collisions at  \(\sqrt{s_{\text {NN}}} = 200\) GeV Using AMPT Model

  • 会议论文

  • 发表日期：

    2025年

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  • Santanu Prodhan,
  • Priyanshi Sinha,
  • Chitrasen Jena

摘要

Flow measurement in \(^{16}\) O+ \(^{16}\) O collisions is expected to complement the understanding of origins of collectivity in small systems. Furthermore, collisions of \(^{16}\) O nuclei will allow for probing observable signatures of nucleon-nucleon (NN) correlations predicted by nuclear theories. In this work, we study O+O collisions at \(\sqrt{s_{\text {NN}}} = 200\) GeV using A Multi-Phase Transport (AMPT) model considering both spherical and clustered nuclear geometries. We investigate the centrality dependence of the eccentricities ( \(\varepsilon _n\) ) and the anisotropic flow coefficients ( \(v_n\) ) characterizing initial spatial and final-state momentum anisotropy, respectively.