As an extension of our previous work, the growth of density fluctuations in
the spinodal region of charge asymmetric nuclear matter is investigated in the
basis of the stochastic mean-field approach in the non-relativistic framework.
A complete treatment of density correlation functions are presented by
including collective modes and non-collective modes as well.Comment: 20 pages, 6 figures, Accepted by Physical Review 

Acar, F.

Ayik, S.

Gokalp, A.

Yilmaz, O.

Physical Review C

English

arXiv

Early growth of density fluctuations of nuclear matter in the spinodal region is investigated employing the stochastic mean-field approach. In contrast to the earlier treatments in which only collective modes were included in the calculations, in the present work noncollective modes are also included, thus providing a complete treatment of the density correlation functions. Calculations are carried out for symmetric matter in a nonrelativistic framework using a semiclassical approximation

Yılmaz, Osman

ACAR, FERİDE PINAR

GÖKALP, AHMET

OpenMETU (Middle East Technical University)

Growth of spinodal instabilities in nuclear matter

O. Yilmaz

S. Ayik

F. Acar

A. Gokalp

Crossref

As an extension of our previous work, the growth of density fluctuations in the spinodal region of charge asymmetric nuclear matter is investigated in the basis of the stochastic mean-field approach in the nonrelativistic framework. A complete treatment of density correlation functions is presented by including collective modes and noncollective modes.Turkiye Bilimsel ve Teknolojik Arastirma Kurumu (TUBITAK)  ; Middle East Technical University  ; United States Department of Energy (DOE

Growth of spinodal instabilities in nuclear matter. II. Asymmetric matter

Cataloged from PDF version of article.Early growth of density fluctuations of nuclear matter in the spinodal region is investigated employing the stochastic mean-field approach. In contrast to the earlier treatments in which only collective modes were included in the calculations, in the present work noncollective modes are also included, thus providing a complete treatment of the density correlation functions. Calculations are carried out for symmetric matter in a nonrelativistic framework using a semiclassical approximation

Bilkent University Institutional Repository

https://open.metu.edu.tr/bitstream/handle/11511/46396/index.pdf