Second Order Phase Transitions : From Infinite to Finite Systems
arXiv:nucl-th/9512019 · doi:10.1016/0375-9474(96)00040-1
Abstract
We investigate the Equation of State (EOS) of classical systems having 300 and 512 particles confined in a box with periodic boundary conditions. We show that such a system, independently on the number of particles investigated, has a critical density of about 1/3 the ground state density and a critical temperature of about . The mass distribution at the critical point exhibits a power law with . Making use of the grand partition function of Fisher's droplet model, we obtain an analytical EOS around the critical point in good agreement with the one extracted from the numerical simulations.
RevTex file, 17 pages + 9 figures available upon request from [email protected]
Cited by in corpus (13)
- Equation of State, Spectra and Composition of Hot and Dense Infinite Hadronic Matter in a Microscopic Transport Model
- The many facets of the (non relativistic) Nuclear Equation of State
- Microscopic model approaches to fragmentation of nuclei and phase transitions in nuclear matter
- The Isospin Dependence Of The Nuclear Equation Of State Near The Critical Point
- Effective interaction dependence of the liquid-gas phase transition in symmetric nuclear matter
- The nuclear liquid-gas phase transition within Fermionic Molecular Dynamics
- Searching for the Nuclear Liquid-Gas Phase Transition in Au + Au Collisions at 35 MeV/nucleon
- Yield scaling, size hierarchy and fluctuations of observables in fragmentation of excited heavy nuclei
- Phase Transition in Liquid Drop Fragmentation
- Molecular Dynamics for Dense Matter
- Critical Scaling of Two-component Systems from Quantum Fluctuations
- Phase space characteristics of fragmenting nuclei described as excited disordered systems
- Dynamics of many-particle fragmentation in a Cellular Automaton model