Effect of the intermediate velocity emissions on the quasi-projectile properties for the Ar+Ni system at 95 A.MeV
arXiv:nucl-ex/0009004 · doi:10.1016/S0370-2693(00)01007-8
Abstract
The quasi-projectile (QP) properties are investigated in the Ar+Ni collisions at 95 A.MeV taking into account the intermediate velocity emission. Indeed, in this reaction, between 52 and 95 A.MeV bombarding energies, the number of particles emitted in the intermediate velocity region is related to the overlap volume between projectile and target. Mean transverse energies of these particles are found particularly high. In this context, the mass of the QP decreases linearly with the impact parameter from peripheral to central collisions whereas its excitation energy increases up to 8 A.MeV. These results are compared to previous analyses assuming a pure binary scenario.
References in corpus (1)
Cited by in corpus (13)
- Caloric curves and critical behavior in nuclei
- Measuring the Temperature of Hot Nuclear Fragments
- Dynamical effects in multifragmentation at intermediate energies
- Constraining the Symmetry Term in the Nuclear Equation of State at Sub-Saturation Densities and Finite Temperatures
- Neutron to proton ratios of quasiprojectile and midrapidity emission in the Zn + Zn reaction at 45 MeV/nucleon
- Thermal Bremsstrahlung photons probing the nuclear caloric curve
- Production mechanism of hot nuclei in violent collisions in the Fermi energy domain
- Excitation and decay of projectile-like fragments formed in dissipative peripheral collisions at intermediate energies
- Production of cold fragments in nucleus-nucleus collisions in the Fermi-energy domain
- Analysis of charged particle emission sources and coalescence in E/A = 61 MeV Ar + Al, Sn and Sn collisions
- Limitation of energy deposition in classical N body dynamics
- Implications of two-body fragment decay for the interpretation of emission chronology from velocity-gated correlation functions
- Constancy of energy partition in central heavy-ion reactions at intermediate energies