Multiplicity Derivative: A new signature of first order phase transition in intermediate energy heavy ion collision
arXiv:1705.08187 · doi:10.1103/PhysRevC.95.061601
Abstract
Measurement of M, the total multiplicity, for central collision between comparable mass heavy ions can provide a signature for first order phase transition. The derivative of M with respect to E*/A where E* is the excitation energy in the centre of mass and A the total mass of the dissociating system is expected to go through maximum as a function of E*. Theoretical modelling shows that this is the energy where the specific heat Cv maximizes which typically happens at first order phase transition. The measurement of total M is probably feasible in more than one laboratory.
4 pages, 7 figures
References in corpus (6)
- Distribution of the largest fragment in the Lattice Gas Model
- Bimodality - a Sign of Critical Behavior in Nuclear Reactions
- Effect of secondary decay on isoscaling: Results from the canonical thermodynamical model
- Bimodality and Coulomb effects with a canonical thermodynamic model
- Specific heat and bimodality in canonical and grand canonical versions of the thermodynamic model
- Comparison of Statistical Multifragmentation Model simulations with Canonical Thermodynamical Model results: a few representative cases
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