[1] B. P. Abbott, et al., GW170817: Observation of Gravitational Waves from a Binary Neutron Star Inspiral, Physical Review Letters 119, 161101 (2017).
[2] B. P. Abbott, et al., Multi-messenger Observations of a Binary Neutron Star Merger, The Astrophysical Journal 848, L12 (2017).
[3] B. P. Abbott, et al., Gravitational waves and gamma-rays from a binary neutron star merger: GW170817 and GRB 170817A, The Astrophysical Journal 848, L13 (2017).
[4] A. Goldstein, et al., An ordinary short gamma-ray burst with extraordinary implications: Fermi -GBM detection of GRB 170817A, The Astrophysical Journal 848, L14 (2017).
[5] V. Savchenko, et al., INTEGRAL detection of the first prompt gamma-ray signal coincident with the gravitational-wave event GW170817, The Astrophysical Journal 848, L15 (2017).
[6] S. J. Smartt, et al., A kilonova as the electromagnetic counterpart to a gravitational-wave source, Nature 551, 75 (2017).
[7] D. Kasen, et al., Origin of the heavy elements in binary neutron-star mergers from a gravitational-wave event, Nature 551, 80 (2017).
[8] R. Chornock, et al., The electromagnetic counterpart of the binary neutron star merger LIGO/virgo GW170817. IV. Detection of near-infrared signatures of r-process nucleosyn- thesis with gemini-south, The Astrophysical Journal 848, L19 (2017).
[9] N. R. Tanvir, et al., The emergence of a lanthanide-rich kilonova following the merger of two neutron stars, The Astrophysical Journal 848, L27 (2017).
[10] W. Reisdorf, et al., Systematics of pion emission in heavy ion collisions in the 1A GeV regime, Nuclear Physics A 781, 459 (2007).
[11] P. Russotto, et al., Symmetry energy from elliptic flow in 197Au+197Au, Physics Letters B 697, 471 (2011).
[12] P. Russotto, et al., Results of the ASY-EOS experiment at GSI: The symmetry energy at suprasaturation density, Physical Review C 94, 034608 (2016).
[13] Z. Xiao, et al., Circumstantial evidence for a soft nuclear symmetry energy at suprasaturation densities, Physical Review Letters 102, 062502 (2009).
[14] Z.-Q. Feng et al., Probing high-density behavior of symmetry energy from pion emission in heavy-ion collisions, Physics Letters B 683, 140 (2010).
[15] M. D. Cozma, et al., Toward a model-independent constraint of the high-density dependence of the symmetry energy, Physical Review C 88, 044912 (2013).
[16] M. D. Cozma, Feasibility of constraining the curvature parameter of the symmetry energy using elliptic flow data, The European Physical Journal A 54, 40 (2018).
[17] A. Ono, et al., Antisymmetrized Version of Molecular Dynamics with Two-Nucleon Colli- sions and its Application to Heavy Ion Reactions, Progress of Theoretical Physics 87, 1185 (1992).
[18] N. Ikeno, et al., Probing neutron-proton dynamics by pions, Physical Review C 93, 044612 (2016).
[19] A. Ono, Cluster correlations in multifragmentation, Journal of Physics: Conference Series 420, 012103 (2013).
[20] A. Ono, in Proceedings of 13th International Conference on Nucleus-Nucleus Collisions (Journal of the Physical Society of Japan, Saitama, Japan, 2020).
[21] M. Kaneko, et al., Kyoto Multiplicity Array for the SuRIT experiment, RIKEN Accelerator Progress Report 50, 172 (2017).
[22] A technical paper on the multiplicity trigger detector is under preparation, which is going to be submitted to NIM journal.
[23] M. Kaneko, et al., Rapidity distributions of Z = 1 isotopes and the nuclear symmetry energy from Sn+Sn collisions with radioactive beams at 270 MeV/nucleon, Physics Letters B 822, 136681 (2021).
[24] X. Roca-Maza et al., Nuclear equation of state from ground and collective excited state properties of nuclei, Progress in Particle and Nuclear Physics 101, 96 (2018).
[25] P. Danielewicz, et al., Determination of the Equation of State of Dense Matter, Science 298, 1592 (2002).
[26] J. M. Lattimer et al., Neutron star observations: Prognosis for equation of state constraints, Physics Reports 442, 109 (2007).
[27] I. Bombaci et al., Asymmetric nuclear matter equation of state, Physical Review C 44, 1892 (1991).
[28] A. Steiner, et al., Isospin asymmetry in nuclei and neutron stars, Physics Reports 411, 325 (2005).
[29] C.-H. Lee, et al., Nuclear symmetry energy, Physical Review C 57, 3488 (1998).
[30] I. Lagaris et al., Variational calculations of asymmetric nuclear matter, Nuclear Physics A 369, 470 (1981).
[31] J. Xu, et al., Locating the inner edge of the neutron star crust using terrestrial nuclear laboratory data, Physical Review C 79, 035802 (2009).
[32] C. Gonzalez-Boquera, et al., Higher-order symmetry energy and neutron star core-crust transition with Gogny forces, Physical Review C 96, 065806 (2017).
[33] H. Jiang, et al., Model dependence of the I4 term in the symmetry energy for finite nuclei, Physical Review C 91, 054302 (2015).
[34] J. Blaizot, Nuclear compressibilities, Physics Reports 64, 171 (1980).
[35] D. H. Youngblood, et al., Incompressibility of nuclear matter from the giant monopole resonance, Physical Review Letters 82, 691 (1999).
[36] S. Shlomo, et al., Deducing the nuclear-matter incompressibility coefficient from data on isoscalar compression modes, The European Physical Journal A - Hadrons and Nuclei 30, 23 (2006).
[37] G. Colò, et al., Microscopic determination of the nuclear incompressibility within the non- relativistic framework, Physical Review C 70, 024307 (2004).
[38] L.-W. Chen et al., Correlations between the nuclear breathing mode energy and properties of asymmetric nuclear matter, Journal of Physics G: Nuclear and Particle Physics 39, 035104 (2012).
[39] J. R. Stone, et al., Incompressibility in finite nuclei and nuclear matter, Physical Review C 89, 044316 (2014).
[40] J. Aichelin et al., Subthreshold kaon production as a probe of the nuclear equation of state, Physical Review Letters 55, 2661 (1985).
[41] C. Fuchs, et al., Origin of subthreshold K+ production in heavy ion collisions, Physical Review C 56, R606 (1997).
[42] C. Fuchs, et al., Probing the nuclear equation of state by K+ production in heavy-ion collisions, Physical Review Letters 86, 1974 (2001).
[43] C. Sturm, et al., Evidence for a soft nuclear equation-of-state from kaon production in heavy-ion collisions, Physical Review Letters 86, 39 (2001).
[44] A. Schmah, et al., Kaon and pion emission in asymmetric C+Au and Au+C collisions at 1.0A GeV and 1.8A GeV, Physical Review C 71, 064907 (2005).
[45] C. Fuchs et al., Modelization of the EOS, The European Physical Journal A - Hadrons and Nuclei 30, 5 (2006).
[46] C. Hartnack, et al., Hadronic matter is soft, Physical Review Letters 96, 012302 (2006).
[47] A. Andronic, et al., Systematics of stopping and flow in Au+ Au collisions, The European Physical Journal A - Hadrons and Nuclei 30, 31 (2006).
[48] W. Reisdorf, et al., Systematics of azimuthal asymmetries in heavy ion collisions in the 1A GeV regime, Nuclear Physics A 876, 1 (2012).
[49] A. Le Fèvre, et al., Constraining the nuclear matter equation of state around twice saturation density, Nuclear Physics A 945, 112 (2016).
[50] Y. Wang, et al., Determination of the nuclear incompressibility from the rapidity-dependent elliptic flow in heavy-ion collisions at beam energies 0.4A–1.0A GeV, Physics Letters B 778, 207 (2018).
[51] G. Taranto, et al., Selecting microscopic equations of state, Physical Review C 87, 045803 (2013).
[52] C. J. Horowitz, et al., A way forward in the study of the symmetry energy: Experiment, theory, and observation, Journal of Physics G: Nuclear and Particle Physics 41, 093001 (2014).
[53] M. Baldo et al., The Nuclear Symmetry Energy, Progress in Particle and Nuclear Physics 91, 203 (2016).
[54] V. Baran, et al., Isospin effects in nuclear fragmentation, Nuclear Physics A 703, 603 (2002).
[55] P. Möller, et al., New finite-range droplet mass model and equation-of-state parameters, Physical Review Letters 108, 052501 (2012).
[56] P. Danielewicz, et al., Symmetry energy III: Isovector skins, Nuclear Physics A 958, 147 (2017).
[57] P. Danielewicz et al., Symmetry energy II: Isobaric analog states, Nuclear Physics A 922, 1 (2014).
[58] M. A. Famiano, et al., Neutron and Proton Transverse Emission Ratio Measurements and the Density Dependence of the Asymmetry Term of the Nuclear Equation of State, Physical Review Letters 97, 052701 (2006).
[59] M. B. Tsang, et al., Isospin diffusion and the nuclear symmetry energy in heavy ion reactions, Physical Review Letters 92, 062701 (2004).
[60] M. B. Tsang, et al., Constraints on the density dependence of the symmetry energy, Physical Review Letters 102, 122701 (2009).
[61] T. X. Liu, et al., Isospin observables from fragment energy spectra, Physical Review C 86, 024605 (2012).
[62] W. Reisdorf, et al., Systematics of central heavy ion collisions in the 1A GeV regime, Nuclear Physics A 848, 366 (2010).
[63] Y. Wang, et al., 3H/3He ratio as a probe of the nuclear symmetry energy at sub-saturation densities, The European Physical Journal A 51, 37 (2015).
[64] G. Jhang, et al., Symmetry energy investigation with pion production from Sn+Sn systems, Physics Letters B 813, 136016 (2021).
[65] J. Estee, et al., Probing the symmetry energy with the spectral pion ratio, Physical Review Letters 126, 162701 (2021).
[66] Z. Kohley, et al., Investigation of transverse collective flow of intermediate mass fragments, Physical Review C 82, 064601 (2010).
[67] Z. Kohley, et al., Transverse collective flow and midrapidity emission of isotopically identi- fied light charged particles, Physical Review C 83, 044601 (2011).
[68] Z. Kohley, et al., Sensitivity of intermediate mass fragment flows to the symmetry energy, Physical Review C 85, 064605 (2012).
[69] M. B. Tsang, et al., Constraints on the symmetry energy and neutron skins from experiments and theory, Physical Review C 86, 015803 (2012).
[70] B.-A. Li et al., Constraining the neutron–proton effective mass splitting using empirical constraints on the density dependence of nuclear symmetry energy around normal density, Physics Letters B 727, 276 (2013).
[71] J. M. Lattimer et al., CONSTRAINING THE SYMMETRY PARAMETERS OF THE NU-CLEAR INTERACTION, The Astrophysical Journal 771, 51 (2013).
[72] M. Oertel, et al., Equations of state for supernovae and compact stars, Reviews of Modern Physics 89, 015007 (2017).
[73] Y. Zhang, et al., Constraints on the symmetry energy and its associated parameters from nuclei to neutron stars, Physical Review C 101, 034303 (2020).
[74] B. Alex Brown, Neutron radii in nuclei and the neutron equation of state, Physical Review Letters 85, 5296 (2000).
[75] J. Xu, Transport approaches for the description of intermediate-energy heavy-ion collisions, Progress in Particle and Nuclear Physics 106, 312 (2019).
[76] R. Chen, et al., Single-nucleon potential decomposition of the nuclear symmetry energy, Physical Review C 85, 024305 (2012).
[77] B.-A. Li, et al., Equation of state of asymmetric nuclear matter and collisions of neutron-rich nuclei, Physical Review Letters 78, 1644 (1997).
[78] Q. Li, et al., Probing the density dependence of the symmetry potential at low and high densities, Physical Review C 72, 034613 (2005).
[79] B.-A. Li, et al., Double neutron/proton ratio of nucleon emissions in isotopic reaction systems as a robust probe of nuclear symmetry energy, Physics Letters B 634, 378 (2006).
[80] Q. Li, et al., Probing the symmetry energy and the degree of isospin equilibrium, Physical Review C 73, 051601 (2006).
[81] S. Kumar, et al., Sensitivity of neutron to proton ratio toward the high density behavior of the symmetry energy in heavy-ion collisions, Physical Review C 85, 024620 (2012).
[82] B.-A. Li, Neutron-proton differential flow as a probe of isospin-dependence of the nuclear equation of state, Physical Review Letters 85, 4221 (2000).
[83] B.-A. Li, Probing the High Density Behavior of the Nuclear Symmetry Energy with High Energy Heavy-Ion Collisions, Physical Review Letters 88, 192701 (2002).
[84] B.-A. Li, High density behaviour of nuclear symmetry energy and high energy heavy-ion collisions, Nuclear Physics A 708, 365 (2002).
[85] V. Greco, et al., Relativistic effects in the search for high density symmetry energy, Physics Letters B 562, 215 (2003).
[86] M. Cozma, Neutron–proton elliptic flow difference as a probe for the high density dependence of the symmetry energy, Physics Letters B 700, 139 (2011).
[87] L.-W. Chen, et al., Light cluster production in intermediate energy heavy-ion collisions induced by neutron-rich nuclei, Nuclear Physics A 729, 809 (2003).
[88] Y. Zhang et al., Probing the density dependence of the symmetry potential with peripheral heavy-ion collisions, Physical Review C 71, 024604 (2005).
[89] G.-C. Yong, et al., Triton-3He relative and differential flows as probes of the nuclear sym- metry energy at supra-saturation densities, Physical Review C 80, 044608 (2009).
[90] B.-A. Li, et al., Near-threshold pion production with radioactive beams, Physical Review C 71, 014608 (2005).
[91] G. Ferini, et al., Isospin effects on subthreshold kaon production at intermediate energies, Physical Review Letters 97, 202301 (2006).
[92] G.-C. Yong, et al., Single and double u−/u+ ratios in heavy-ion reactions as probes of the high-density behavior of the nuclear symmetry energy, Physical Review C 73, 034603 (2006).
[93] Z.-G. Xiao, et al., Probing nuclear symmetry energy at high densities using pion, kaon, eta and photon productions in heavy-ion collisions, The European Physical Journal A 50, 37 (2014).
[94] N. Ikeno, et al., Erratum: Probing neutron-proton dynamics by pions [Phys. Rev. C 93, 044612 (2016)], Physical Review C 97, 069902 (2018).
[95] G.-C. Yong, Modeling pion production in heavy-ion collisions at intermediate energies, Physical Review C 96, 044605 (2017).
[96] M. B. Tsang, et al., Pion production in rare-isotope collisions, Physical Review C 95, 044614 (2017).
[97] Q. Li, et al., S−/S+ ratio as a candidate for probing the density dependence of the symmetry potential at high nuclear densities, Physical Review C 71, 054907 (2005).
[98] W.-J. Xie, et al., Symmetry energy and pion production in the Boltzmann–Langevin ap- proach, Physics Letters B 718, 1510 (2013).
[99] J. Hong et al., Subthreshold pion production within a transport description of central Au + Au collisions, Physical Review C 90, 024605 (2014).
[100] J. Xu, et al., Energy dependence of pion in-medium effects on the u−/u+ ratio in heavy-ion collisions, Physical Review C 87, 067601 (2013).
[101] W.-M. Guo, et al., Effects of nuclear symmetry energy and in-medium NN cross section in heavy-ion collisions at beam energies below the pion production threshold, Physical Review C 90, 044605 (2014).
[102] G.-C. Yong, Cross-checking the symmetry energy at high densities, Physical Review C 93, 044610 (2016).
[103] W.-M. Guo, et al., Effects of pion potential and nuclear symmetry energy on the u−/u+ ratio in heavy-ion collisions at beam energies around the pion production threshold, Physical Review C 91, 054616 (2015).
[104] Z.-Q. Feng, et al., In-medium and isospin effects on particle production near threshold energies in heavy-ion collisions, Physical Review C 92, 044604 (2015).
[105] Z. Zhang et al., Medium effects on pion production in heavy ion collisions, Physical Review C 95, 064604 (2017).
[106] M. D. Cozma, Constraining the density dependence of the symmetry energy using the multiplicity and average pT ratios of charged pions, Physical Review C 95, 014601 (2017).
[107] B.-A. Li, Symmetry potential of the A(1232) resonance and its effects on the u−/u+ ratio in heavy-ion collisions near the pion-production threshold, Physical Review C 92, 034603 (2015).
[108] W.-M. Guo, et al., Effect of A potential on the u−/u+ ratio in heavy-ion collisions at intermediate energies, Physical Review C 92, 054619 (2015).
[109] N. Ikeno, et al., Effects of Pauli blocking on pion production in central collisions of neutron- rich nuclei, Physical Review C 101, 034607 (2020).
[110] T. Song et al., Modifications of the pion-production threshold in the nuclear medium in heavy ion collisions and the nuclear symmetry energy, Physical Review C 91, 014901 (2015).
[111] B.-A. Li, et al., Effects of the kinetic symmetry energy reduced by short-range correlations in heavy-ion collisions at intermediate energies, Physical Review C 91, 044601 (2015).
[112] M. Cozma, The impact of energy conservation in transport models on the u-/u+ multiplicity ratio in heavy-ion collisions and the symmetry energy, Physics Letters B 753, 166 (2016).
[113] J. Xu, et al., Understanding transport simulations of heavy-ion collisions at 100A and 400A MeV: Comparison of heavy-ion transport codes under controlled conditions, Physical Review C 93, 044609 (2016).
[114] Y.-X. Zhang, et al., Comparison of heavy-ion transport simulations: Collision integral in a box, Physical Review C 97, 034625 (2018).
[115] A. Ono, et al., Comparison of heavy-ion transport simulations: Collision integral with pions and A resonances in a box, Physical Review C 100, 044617 (2019).
[116] Y. Leifels, et al., Exclusive studies of neutron and charged particle emission in collisions of 197Au +197Au at 400 MeV/nucleon, Physical Review Letters 71, 963 (1993).
[117] D. Lambrecht, et al., Energy dependence of collective flow of neutrons and protons in 197Au+197Au collisions, Zeitschrift für Physik A Hadrons and Nuclei 350, 115 (1994).
[118] Y. Wang, et al., Constraining the high-density nuclear symmetry energy with the transverse- momentum-dependent elliptic flow, Physical Review C 89, 044603 (2014).
[119] Y. Wang, et al., Study of the nuclear symmetry energy from the rapidity-dependent elliptic flow in heavy-ion collisions around 1 GeV/nucleon regime, Physics Letters B 802, 135249 (2020).
[120] Z.-Q. Feng, Nuclear in-medium effects and collective flows in heavy-ion collisions at inter- mediate energies, Physical Review C 85, 014604 (2012).
[121] Y. Wang, et al., Collective flow of light particles in Au + Au collisions at intermediate energies, Physical Review C 89, 034606 (2014).
[122] W. Reisdorf, et al., Nuclear stopping from 0.09A to 1.93A GeV and its correlation to flow, Physical Review Letters 92, 232301 (2004).
[123] L.-W. Chen, et al., Effects of momentum-dependent nuclear potential on two-nucleon cor- relation functions and light cluster production in intermediate energy heavy-ion collisions, Physical Review C 69, 054606 (2004).
[124] A. Ono, Dynamics of clusters and fragments in heavy-ion collisions, Progress in Particle and Nuclear Physics 105, 139 (2019).
[125] A. Ono, Cluster production within antisymmetrized molecular dynamics, EPJ Web of Con- ferences 122, 11001 (2016).
[126] D. D. S. Coupland, et al., Influence of transport variables on isospin transport ratios, Physical Review C 84, 054603 (2011).
[127] W. Reisdorf, et al., Central collisions of Au on Au at 150, 250 and 400 A MeV, Nuclear Physics A 612, 493 (1997).
[128] S. Hudan, et al., Characteristics of the fragments produced in central collisions of 129Xe+natSn from 32A to 50 A MeV, Physical Review C 67, 064613 (2003).
[129] B. Borderie et al., Nuclear multifragmentation and phase transition for hot nuclei, Progress in Particle and Nuclear Physics 61, 551 (2008).
[130] Y. Zhang, et al., Effect of isospin-dependent cluster recognition on the observables in heavy ion collisions, Physical Review C 85, 051602 (2012).
[131] K. Zbiri, et al., Transition from participant to spectator fragmentation in Au+Au reactions between 60A and 150A MeV, Phys. Rev. C 75, 034612 (2007).
[132] K. Ikeda, et al., The systematic structure-change into the molecule-like structures in the self-conjugate 4n nuclei, Progress of Theoretical Physics Supplement E68, 464 (1968).
[133] S. Adachi, et al., Systematic analysis of inelastic ю scattering off self-conjugate A=4n nuclei, Physical Review C 97, 014601 (2018).
[134] J. Tanaka, et al., Formation of ю clusters in dilute neutron-rich matter, Science 371, 260 (2021).
[135] A. Arcones, et al., Influence of light nuclei on neutrino-driven supernova outflows, Physical Review C 78, 015806 (2008).
[136] S. Typel, et al., Composition and thermodynamics of nuclear matter with light clusters, Physical Review C 81, 015803 (2010).
[137] S. Typel, et al., Effects of the liquid-gas phase transition and cluster formation on the symmetry energy, The European Physical Journal A 50, 17 (2014).
[138] G. Röpke, Parametrization of light nuclei quasiparticle energy shifts and composition of warm and dense nuclear matter, Nuclear Physics A 867, 66 (2011).
[139] G. Röpke, Nuclear matter equation of state including two-, three-, and four-nucleon correla- tions, Physical Review C 92, 054001 (2015).
[140] S. S. Avancini, et al., Light clusters and pasta phases in warm and dense nuclear matter, Physical Review C 95, 045804 (2017).
[141] P. Danielewicz et al., Production of deuterons and pions in a transport model of energetic heavy-ion reactions, Nuclear Physics A 533, 712 (1991).
[142] P. Danielewicz et al., Blast of light fragments from central heavy-ion collisions, Physical Review C 46, 2002 (1992).
[143] G. Tian, et al., Cluster correlation and fragment emission in 12C+12C at 95 MeV/nucleon, Physical Review C 97, 034610 (2018).
[144] J. I. Kapusta, Mechanisms for deuteron production in relativistic nuclear collisions, Physical Review C: Nuclear Physics 21, 1301 (1980).
[145] E. Santini, et al., Fragment formation in central heavy ion collisions at relativistic energies, Nuclear Physics A 756, 468 (2005).
[146] B. Hong, et al., Proton and deuteron rapidity distributions and nuclear stopping in 96Ru(96Zr)+96Ru(96Zr) collisions at 400AMeV, Physical Review C 66, 034901 (2002).
[147] T. Gaitanos, et al., Stopping and isospin equilibration in heavy ion collisions, Physics Letters B 595, 209 (2004).
[148] Y. Zhang, et al., In-medium NN cross sections determined from the nuclear stopping and collective flow in heavy-ion collisions at intermediate energies, Physical Review C 75, 034615 (2007).
[149] S. Kumar, et al., Effect of the symmetry energy on nuclear stopping and its relation to the production of light charged fragments, Physical Review C 81, 014601 (2010).
[150] F. Rami, et al., Isospin tracing: A probe of nonequilibrium in central heavy-ion collisions, Physical Review Letters 84, 1120 (2000).
[151] P. Li, et al., Effects of the in-medium nucleon-nucleon cross section on collective flow and nuclear stopping in heavy-ion collisions in the Fermi-energy domain, Physical Review C 97, 044620 (2018).
[152] A. Hombach, et al., Isospin equilibration in relativistic heavy-ion collisions, The European Physical Journal A - Hadrons and Nuclei 5, 77 (1999).
[153] J. Su, et al., Effects of symmetry energy and effective k-mass splitting on central 96Ru(96Zr)+96Zr(96Ru) collisions at 50 to 400 MeV/nucleon, Physical Review C 96, 024601 (2017).
[154] Z. Chajecki, et al., Scaling properties of light-cluster production, arXiv:1402.5216 [nucl-ex] (2014), arXiv:1402.5216 [nucl-ex] .
[155] Y. Yano, The RIKEN RI beam factory project: A status report, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 261, 1009 (2007).
[156] H. Okuno, et al., Progress of RIBF accelerators, Progress of Theoretical and Experimental Physics 2012, 03C002 (2012).
[157] T. Motobayashi et al., Research with fast radioactive isotope beams at RIKEN, Progress of Theoretical and Experimental Physics 2012, 03C001 (2012).
[158] T. Nakamura, et al., Exotic nuclei explored at in-flight separators, Progress in Particle and Nuclear Physics 97, 53 (2017).
[159] H. Sakurai, Nuclear physics with RI Beam Factory, Frontiers of Physics 13, 132111 (2018).
[160] Y. Higurashi, et al., Results of RIKEN superconducting electron cyclotron resonance ion source with 28 GHz, Review of Scientific Instruments 83, 02A308 (2012).
[161] Y. Higurashi, et al., Recent development of RIKEN 28 GHz superconducting electron cyclotron resonance ion source, Review of Scientific Instruments 85, 02A953 (2014).
[162] K. Suda, et al., Design and construction of drift tube linac cavities for RIKEN RI Beam Factory, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 722, 55 (2013).
[163] H. Okuno, et al., Present status of and recent developments at RIKEN RI beam factory, Journal of Physics: Conference Series 1401, 012005 (2020).
[164] H. Imao, et al., Charge stripping of 238U ion beam by helium gas stripper, Physical Review Special Topics - Accelerators and Beams 15, 123501 (2012).
[165] H. Hasebe, et al., Development of a rotating graphite carbon disk stripper, AIP Conference Proceedings 1962, 030004 (2018).
[166] T. Kubo, Recent progress of in-flight separators and rare isotope beam production, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 376, 102 (2016).
[167] Status of the calculated production cross section as well as measurements of that at RIBF are provided here., https://www.nishina.riken.jp/ribf/BigRIPS/intensity.html.
[168] J. Benlliure, et al., Production of medium-mass neutron-rich nuclei in reactions induced by 136Xe projectiles at 1 A GeV on a beryllium target, Physical Review C: Nuclear Physics 78, 054605 (2008).
[169] B. Blank, et al., New neutron-deficient isotopes from 78Kr fragmentation, Physical Review C: Nuclear Physics 93, 061301 (2016).
[170] K. Sümmerer, Improved empirical parametrization of fragmentation cross sections, Physical Review C 86, 014601 (2012).
[171] M. Bernas, et al., Discovery and cross-section measurement of 58 new fission products in projectile-fission of 750 · A MeV 238U, Physics Letters B 415, 111 (1997).
[172] J. Kurcewicz, et al., Discovery and cross-section measurement of neutron-rich isotopes in the element range from neodymium to platinum with the FRS, Physics Letters B 717, 371 (2012).
[173] Y. Shimizu, et al., Observation of New Neutron-rich Isotopes among Fission Fragments from In-flight Fission of 345 MeV/nucleon 238U: Search for New Isotopes Conducted Concurrently with Decay Measurement Campaigns, Journal of the Physical Society of Japan 87, 014203 (2018).
[174] N. Fukuda, et al., Identification of new neutron-rich isotopes in the rare-earth region produced by 345 MeV/nucleon 238U, Journal of the Physical Society of Japan 87, 014202 (2018).
[175] T. Kubo, et al., BigRIPS separator and ZeroDegree spectrometer at RIKEN RI Beam Factory, Progress of Theoretical and Experimental Physics 2012, 03C003 (2012).
[176] J. Dufour, et al., Projectile fragments isotopic separation: Application to the lise spectrometer at GANIL, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 248, 267 (1986).
[177] N. Fukuda, et al., Identification and separation of radioactive isotope beams by the BigRIPS separator at the RIKEN RI Beam Factory, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 317, 323 (2013).
[178] H. Kumagai, et al., Delay-line PPAC for high-energy light ions, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Asso- ciated Equipment 470, 562 (2001).
[179] H. Kumagai, et al., Development of parallel plate avalanche counter (PPAC) for BigRIPS fragment separator, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 317, 717 (2013).
[180] K. Kimura, et al., High-rate particle identification of high-energy heavy ions using a tilted electrode gas ionization chamber, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 538, 608 (2005).
[181] H. Sato, et al., Superconducting dipole magnet for SAMURAI spectrometer, IEEE Transac- tions on Applied Superconductivity 23, 4500308 (2013).
[182] H. Otsu, et al., SAMURAI in its operation phase for RIBF users, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 376, 175 (2016).
[183] R. Shane, et al., SuRIT: A time-projection chamber for symmetry-energy studies, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, De- tectors and Associated Equipment 784, 513 (2015).
[184] J. E. Barney, Charged Pion Emission from 112Sn+124Sn and 124Sn+112Sn Reactions with the SuRIT Time Projection Chamber, Ph.D. thesis, Michigan State University (2019).
[185] J. Barney, et al., The SuRIT time projection chamber, Review of Scientific Instruments 92, 063302 (2021).
[186] R. Veenhof, Garfield, recent developments, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 419, 726 (1998).
[187] S. Tangwancharoen, et al., A gating grid driver for time projection chambers, Nuclear Instru- ments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 853, 44 (2017).
[188] E. Pollacco, et al., GET: A generic electronics system for TPCs and nuclear physics instru- mentation, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 887, 81 (2018).
[189] T. Isobe, et al., Application of the Generic Electronics for Time Projection Chamber (GET) readout system for heavy Radioactive isotope collision experiments, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 899, 43 (2018).
[190] X. Grave, et al., in 14th IEEE-NPSS Real Time Conference, 2005. (2005) pp. 5 pp.–.
[191] S. Callier, et al., EASIROC, an easy & versatile ReadOut device for SiPM, Physics Procedia 37, 1569 (2012).
[192] S. Agostinelli, et al., Geant4—a simulation toolkit, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equip- ment 506, 250 (2003).
[193] M. Bleicher, et al., Relativistic hadron-hadron collisions in the ultra-relativistic quantum molecular dynamics model, Journal of Physics G: Nuclear and Particle Physics 25, 1859 (1999).
[194] P. Lasko, et al., KATANA – A charge-sensitive triggering system for the SuRIT experiment, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrome- ters, Detectors and Associated Equipment 856, 92 (2017).
[195] Y. Zhang, et al., The Veto Collimator for the SuRIT-TPC, RIKEN Accelerator Progress Report 50, 170 (2017).
[196] T. Kobayashi, et al., SAMURAI spectrometer for RI beam experiments, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 317, 294 (2013).
[197] I. Gašparić, et al., NeuLAND demonstrator performance in EOS experiments, RIKEN Accelerator Progress Report 50, 176 (2017).
[198] H. Baba, et al., New data acquisition system for the RIKEN radioactive isotope beam factory, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 616, 65 (2010).
[199] H. Baba, et al., Common trigger firmware for GTO, RIKEN Accelerator Progress Report 47, 235 (2014).
[200] M. Kaneko, The ANAROOT-based software codes for analyzing RI beam-induced data of the BigRIPS detectors, https://github.com/SpiRIT-Collaboration/BeamAnalysis_S22.
[201] K. Makino et al., COSY INFINITY Version 9, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 558, 346 (2006).
[202] O. Tarasov et al., LISE++: Radioactive beam production with in-flight separators, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 266, 4657 (2008).
[203] J. W. Lee, et al., Charged particle track reconstruction with SuRIT time projection chamber, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrome- ters, Detectors and Associated Equipment 965, 163840 (2020).
[204] G. Jhang, et al., Beam commissioning of the SuRIT time projection chamber, Journal of the Korean Physical Society 69, 144 (2016).
[205] G. Jhang, Performance of the SuRIT TPC for the Nuclear Physics Experiment at RIBF, Ph.D. thesis, Korea University (2016).
[206] J. Estee, et al., Extending the dynamic range of electronics in a Time Projection Chamber, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrome- ters, Detectors and Associated Equipment 944, 162509 (2019).
[207] C. Y. Tsang, et al., Space charge effects in the SuRIT time projection chamber, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, De- tectors and Associated Equipment 959, 163477 (2020).
[208] R. Brun et al., ROOT — An object oriented data analysis framework, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 389, 81 (1997).
[209] R. Frühwirth et al., Robust circle reconstruction with the Riemann fit, Journal of Physics: Conference Series 1085, 042004 (2018).
[210] J. Rauch et al., GENFIT — a generic track-fitting toolkit, Journal of Physics: Conference Series 608, 012042 (2015).
[211] W. Waltenberger, et al., Adaptive vertex fitting, Journal of Physics G: Nuclear and Particle Physics 34, N343 (2007).
[212] W. Waltenberger, RAVE—A detector-independent toolkit to reconstruct vertices, IEEE Transactions on Nuclear Science 58, 434 (2011).
[213] Particle Data Group, et al., Review of Particle Physics, Progress of Theoretical and Experi- mental Physics 2020, 10.1093/ptep/ptaa104 (2020).
[214] C. Cavata, et al., Determination of the impact parameter in relativistic nucleus-nucleus collisions, Physical Review C 42, 1760 (1990).
[215] W. D. Myers, Geometric properties of leptodermous distributions with applications to nuclei, Nuclear Physics A 204, 465 (1973).
[216] F. Cerutti, et al., A semiclassical formula for the reaction cross-section of heavy ions, The European Physical Journal A - Hadrons and Nuclei 25, 413 (2005).
[217] R. Kumar, et al., Parameterization scheme for determining the reaction cross sections at intermediate beam energies for normal and exotic nuclei, Nuclear Physics A 849, 182 (2011).
[218] M. Anderson, et al., The STAR time projection chamber: A unique tool for studying high multiplicity events at RHIC, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 499, 659 (2003).
[219] E. Chabanat, et al., A Skyrme parametrization from subnuclear to neutron star densities Part II. Nuclei far from stabilities, Nuclear Physics A 635, 231 (1998).
[220] A. Ono, et al., Nucleon flow and fragment flow in heavy ion reactions, Physical Review C 48, 2946 (1993).