Study of fragmentation using clusterization algorithm with realistic binding energies

Abstract

We here study fragmentation using \emph{simulated annealing clusterization algorithm} (SACA) with binding energy at a microscopic level. In an earlier version, a constant binding energy (4 MeV/nucleon) was used. We improve this binding energy criterion by calculating the binding energy of different clusters using modified Bethe-Weizsäcker mass (BWM) formula. We also compare our calculations with experimental data of ALADiN group. Nearly no effect is visible of this modification.

References in corpus (1)

• Reply to Comment on Extension of the Bethe-Weizsacker mass formula to light nuclei and some new shell closures

Cited by in corpus (28)

• Comparison of different proximity potentials for asymmetric colliding nuclei
• A systematic study of the fusion barriers using different proximity type potentials for $N=Z$ colliding nuclei : New extensions
• Isospin effects on the energy of vanishing flow in heavy-ion collisions
• Formation of fragments in heavy-ion collisions using modified clusterization method
• Isospin effects on the mass dependence of balance energy
• On the elliptical flow and asymmetry of the colliding nuclei
• Isobaric Yield Ratio Difference in Heavy-ion Collisions, and Comparison to Isoscaling
• Entropy and light cluster production in heavy-ion collisions at intermediate energies
• Systematic study of multi-fragmentation in asymmetric colliding nuclei
• Systematic study of the system size dependence of global stopping: Role of momentum dependent interactions and symmetry energy
• Neutron Density Distributions of Neutron-Rich Nuclei Studied with the Isobaric Yield Ratio Difference
• Influence of charge asymmetry and isospin dependent cross-section on nuclear stopping
• Experimental balance energies and isospin-dependent nucleon-nucleon cross-sections
• Model ingredients and peak mass production in heavy-ion collisions
• Study of fusion dynamics using Skyrme energy density formalism with different surface corrections
• Influence of density dependent symmetry energy on Elliptical flow
• Role of colliding geometry on the balance energy of mass-asymmetric systems
• On the density and temperature of neutron-rich systems at the energy of vanishing flow in heavy-ion collisions
• Multifragmentation at the balance energy of mass asymmetric colliding nuclei
• Phase space analysis of fragmentation and role of mass asymmetry
• N/Z and N/A dependence of balance energy as a probe of symmetry energy in heavy-ion collisions
• The study of multifragmentation around transition energy in intermediate energy heavy-ion collisions
• Mass independence and asymmetry of the reaction: Multi-fragmentation as an example
• Pairing-energy coefficients of neutron-rich fragments in spallation reactions
• Remarks on the non-equilibrium effects and collision dynamics in heavy-ion collisions
• Effect of the density dependent symmetry energy on fragmentation
• Impact parameter dependence of the isospin effects and mass dependence of balance energy
• Spectator fragmentation in nucleus-nucleus collisions: Phase space approach