Neutrino Energy Loss Rates due to {sup 54,55,56}Fe in Stellar Environment
Journal Article
·
· AIP Conference Proceedings
- Faculty of Engineering Sciences, GIK Institute of Engineering Sciences and Technology, Topi 23640, Swabi, NWFP (Pakistan)
Neutrino energy loss rates are required as a key nuclear physics input parameter in the simulation codes of core-collapse supernovae of massive stars. The weak interaction rates due to isotopes of iron, {sup 54,55,56}Fe, are considered to play an important role during the presupernova evolution of massive stars. Proton-neutron quasi-particle random phase approximation (pn-QRPA) theory has recently being used for a microscopic calculation of stellar weak interaction rates of iron isotopes with success. The calculation of neutrino energy loss rates due to {sup 54,55,56}Fe is presented along with a comparison with large scale shell model results.
- OSTI ID:
- 21362105
- Journal Information:
- AIP Conference Proceedings, Vol. 1238, Issue 1; Conference: 7. Tours symposium on nuclear physics and astrophysics, Kobe (Japan), 16-20 Nov 2009; Other Information: DOI: 10.1063/1.3455932; (c) 2010 American Institute of Physics; ISSN 0094-243X
- Country of Publication:
- United States
- Language:
- English
Similar Records
Fine-grid calculations for stellar electron and positron capture rates on Fe isotopes
Stellar neutrino energy loss rates due to {sup 24}Mg suitable for O+Ne+Mg core simulations
Neutrino energy loss rates and positron capture rates on {sup 55}Co for presupernova and supernova physics
Journal Article
·
Fri Mar 15 00:00:00 EDT 2013
· Physics of Atomic Nuclei
·
OSTI ID:21362105
Stellar neutrino energy loss rates due to {sup 24}Mg suitable for O+Ne+Mg core simulations
Journal Article
·
Wed Oct 15 00:00:00 EDT 2008
· Physical Review. C, Nuclear Physics
·
OSTI ID:21362105
Neutrino energy loss rates and positron capture rates on {sup 55}Co for presupernova and supernova physics
Journal Article
·
Thu May 15 00:00:00 EDT 2008
· Physical Review. C, Nuclear Physics
·
OSTI ID:21362105
Related Subjects
73 NUCLEAR PHYSICS AND RADIATION PHYSICS
79 ASTROPHYSICS
COSMOLOGY AND ASTRONOMY
ELECTRON CAPTURE
ENERGY LOSSES
GALACTIC EVOLUTION
IRON
IRON 54
IRON 55
IRON 56
NEUTRINO-NUCLEON INTERACTIONS
NEUTRINOS
NEUTRONS
NUCLEAR PHYSICS
PROTONS
QUASI PARTICLES
RANDOM PHASE APPROXIMATION
SHELL MODELS
SIMULATION
SUPERNOVAE
WEAK INTERACTIONS
APPROXIMATIONS
BARYONS
BASIC INTERACTIONS
BETA DECAY RADIOISOTOPES
BINARY STARS
CALCULATION METHODS
CAPTURE
ELECTRON CAPTURE RADIOISOTOPES
ELEMENTARY PARTICLES
ELEMENTS
ERUPTIVE VARIABLE STARS
EVEN-EVEN NUCLEI
EVEN-ODD NUCLEI
EVOLUTION
FERMIONS
HADRONS
INTERACTIONS
INTERMEDIATE MASS NUCLEI
IRON ISOTOPES
ISOTOPES
LEPTON-BARYON INTERACTIONS
LEPTON-HADRON INTERACTIONS
LEPTON-NUCLEON INTERACTIONS
LEPTONS
LOSSES
MASSLESS PARTICLES
MATHEMATICAL MODELS
METALS
NUCLEAR MODELS
NUCLEI
NUCLEONS
PARTICLE INTERACTIONS
PHYSICS
RADIOISOTOPES
STABLE ISOTOPES
STARS
TRANSITION ELEMENTS
VARIABLE STARS
YEARS LIVING RADIOISOTOPES
79 ASTROPHYSICS
COSMOLOGY AND ASTRONOMY
ELECTRON CAPTURE
ENERGY LOSSES
GALACTIC EVOLUTION
IRON
IRON 54
IRON 55
IRON 56
NEUTRINO-NUCLEON INTERACTIONS
NEUTRINOS
NEUTRONS
NUCLEAR PHYSICS
PROTONS
QUASI PARTICLES
RANDOM PHASE APPROXIMATION
SHELL MODELS
SIMULATION
SUPERNOVAE
WEAK INTERACTIONS
APPROXIMATIONS
BARYONS
BASIC INTERACTIONS
BETA DECAY RADIOISOTOPES
BINARY STARS
CALCULATION METHODS
CAPTURE
ELECTRON CAPTURE RADIOISOTOPES
ELEMENTARY PARTICLES
ELEMENTS
ERUPTIVE VARIABLE STARS
EVEN-EVEN NUCLEI
EVEN-ODD NUCLEI
EVOLUTION
FERMIONS
HADRONS
INTERACTIONS
INTERMEDIATE MASS NUCLEI
IRON ISOTOPES
ISOTOPES
LEPTON-BARYON INTERACTIONS
LEPTON-HADRON INTERACTIONS
LEPTON-NUCLEON INTERACTIONS
LEPTONS
LOSSES
MASSLESS PARTICLES
MATHEMATICAL MODELS
METALS
NUCLEAR MODELS
NUCLEI
NUCLEONS
PARTICLE INTERACTIONS
PHYSICS
RADIOISOTOPES
STABLE ISOTOPES
STARS
TRANSITION ELEMENTS
VARIABLE STARS
YEARS LIVING RADIOISOTOPES