Comparison of statistical multifragmentation model simulations with canonical thermodynamic model results: A few representative cases

Botvina, A. S.; Chaudhuri, Gargi; Gupta, S. Das; Mishustin, I. N.

doi:10.1016/j.physletb.2008.09.012

Cited by 13 publications

(17 citation statements)

References 10 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…These are not available to us. However for the only cases investigated we found that CTM and SMM results were quite close [21] so the correspondence we have found here between transport model results and CTM will presumably hold for SMM also. Multiplicity distributions in 16 O+ 80 Br were done with dynamic models before.…”

Section: Resultssupporting

confidence: 73%

Event simulations in a transport model for intermediate energy heavy ion collisions: Applications to multiplicity distributions

2015

Self Cite

View full text Add to dashboard Cite

We perform transport model calculations for central collisions of mass 120 on mass 120 at laboratory beam energy in the range 20 MeV/nucleon to 200 MeV/nucleon. A simplified yet accurate method allows calculation of fluctuations in systems much larger than what was considered feasible in a well-known and already existing model. The calculations produce clusters. The distribution of clusters is remarkably similar to that obtained in equilibrium statistical model.

show abstract

Section: Resultssupporting

confidence: 73%

Event simulations in a transport model for intermediate energy heavy ion collisions: Applications to multiplicity distributions

2015

Self Cite

View full text Add to dashboard Cite

show abstract

“…The nuclear breakup of Au nuclei depending on the excitation energy E * was simulated using the Monte Carlo generator GEMINI++ [1285] and SMM [1286]. The MC simulation showed that whenever the nucleus breaks up there will be at least one neutron emitted.…”

Section: A Dedicated Eic Detectormentioning

confidence: 99%

Gluons and the quark sea at high energies: distributions, polarization, tomography

Boer¹,

Diehl²,

Milner³

et al. 2011

198

291

View full text Add to dashboard Cite

ForewordThe study of the fundamental structure of nuclear matter is a central thrust of physics research in the United States. As indicated in Frontiers of Nuclear Science, the 2007 Nuclear Science Advisory Committee long range plan, consideration of a future Electron-Ion Collider (EIC) is a priority and will likely be a significant focus of discussion at the next long range plan. We are therefore pleased to have supported the ten week program in fall 2010 at the Institute of Nuclear Theory which examined at length the science case for the EIC. This program was a major effort; it attracted the maximum allowable attendance over ten weeks.This report summarizes the current understanding of the physics and articulates important open questions that can be addressed by an EIC. It converges towards a set of "golden" experiments that illustrate both the science reach and the technical demands on such a facility, and thereby establishes a firm ground from which to launch the next phase in preparation for the upcoming long range plan discussions. We thank all the participants in this productive program. In particular, we would like to acknowledge the leadership and dedication of the five co-organizers of the program who are also the co-editors of this report.David Kaplan, Director, National Institute for Nuclear Theory Hugh Montgomery, Director, Thomas Jefferson National Accelerator Facility Steven Vigdor, Associate Lab Director, Brookhaven National Laboratory iii Preface This volume is based on a ten-week program on "Gluons and the quark sea at high energies", which took place at the Institute for Nuclear Theory (INT) in Seattle from September 13 to November 19, 2010. The principal aim of the program was to develop and sharpen the science case for an Electron-Ion Collider (EIC), a facility that will be able to collide electrons and positrons with polarized protons and with light to heavy nuclei at high energies, offering unprecedented possibilities for in-depth studies of quantum chromodynamics. Guiding questions were• What are the crucial science issues?• How do they fit within the overall goals for nuclear physics?• Why can't they be addressed adequately at existing facilities?• Will they still be interesting in the 2020's, when a suitable facility might be realized?The program started with a five-day workshop on "Perturbative and Non-Perturbative Aspects of QCD at Collider Energies", which was followed by eight weeks of regular program and a concluding four-day workshop on "The Science Case for an EIC".More than 120 theorists and experimentalists took part in the program over ten weeks. It was only possible to smoothly accommodate such a large number of participants because of the extraordinary efforts of the INT staff, to whom we extend our warm thanks and appreciation. We thank the INT Director, David Kaplan, for his strong support of the program and for covering a significant portion of the costs for printing this volume. We gratefully acknowledge additional financial support provided by BNL and JLab.The program w...

show abstract

“…SMM is more general but requires complicated Monte Carlo simulations. In typical physical situations the two models give very similar results [3].…”

Section: Introductionmentioning

confidence: 82%

Extending the canonical thermodynamic model: Inclusion of hypernuclei

Gupta

2009

Nuclear Physics A

View full text Add to dashboard Cite

The canonical thermodynamic model has been used frequently to describe the disassembly of hot nuclear matter consisting of neutrons and protons. Such matter is formed in intermediate energy heavy ion collisions. Here we extend the method to include, in addition to neutrons and protons, Λ particles. This allows us to include productions of hypernuclei in intermediate energy heavy ion collisions. We can easily predict average mass number of hypernuclei produced and values of relative cross-sections of different a Λ z nuclei. Computation of absolute cross-section was not attempted at this stage and will require much more detailed work.

show abstract

Comparison of statistical multifragmentation model simulations with canonical thermodynamic model results: A few representative cases

Cited by 13 publications

References 10 publications

Event simulations in a transport model for intermediate energy heavy ion collisions: Applications to multiplicity distributions

Event simulations in a transport model for intermediate energy heavy ion collisions: Applications to multiplicity distributions

Gluons and the quark sea at high energies: distributions, polarization, tomography

Extending the canonical thermodynamic model: Inclusion of hypernuclei

Contact Info

Product

Resources

About