The Exciton Model Part II
Details
This is the second part of "The Exciton Model", a book aimed to explain the theoretical approach needed in Preequilibrium Emission (PE) spectra calculations. In Part I of the book, the nuclear level density calculations based on the Equidistant Spacing Model (ESM) were given. The focus was then driven to the simple, yet useful, approach of the ESM, while in this part, the idea of the non-ESM, i.e., the real energy distribution scheme of the nuclear levels will be considered. This represents the non-approximated model of level density. Beside the above, the important steps needed during PE spectra calculations are given. Some practical programs, with numerical results, are also given.
Autorentext
Ph.D. in nuclear physics from the College of Science-University of Baghdad, and has worked as a lecturer since 2009. Currently the manager of Information and Media Unit at the same college.
Klappentext
This is the second part of "The Exciton Model", a book aimed to explain the theoretical approach needed in Preequilibrium Emission (PE) spectra calculations. In Part I of the book, the nuclear level density calculations based on the Equidistant Spacing Model (ESM) were given. The focus was then driven to the simple, yet useful, approach of the ESM, while in this part, the idea of the non-ESM, i.e., the real energy distribution scheme of the nuclear levels will be considered. This represents the non-approximated model of level density. Beside the above, the important steps needed during PE spectra calculations are given. Some practical programs, with numerical results, are also given.
Weitere Informationen
- Allgemeine Informationen
- GTIN 09783659217678
- Auflage Aufl.
- Sprache Englisch
- Genre Physik & Astronomie
- Größe H220mm x B150mm x T11mm
- Jahr 2012
- EAN 9783659217678
- Format Kartonierter Einband (Kt)
- ISBN 978-3-659-21767-8
- Titel The Exciton Model Part II
- Autor Ahmed Abdul-Razzaq Selman
- Untertitel Non-ESM Level Density and Model Outline
- Gewicht 278g
- Herausgeber LAP Lambert Academic Publishing
- Anzahl Seiten 176