Condensed matter effects in the solar neutrino problem

Rabinowitz, M. ; Kim, Y. E. ; Yoon, J. -H.
Springer
Published 1994
ISSN:
1572-9575
Source:
Springer Online Journal Archives 1860-2000
Topics:
Physics
Notes:
Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
Type of Medium:
Electronic Resource
URL:
_version_ 1798296481124319232
autor Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
autorsonst Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
book_url http://dx.doi.org/10.1007/BF00675800
datenlieferant nat_lic_papers
hauptsatz hsatz_simple
identnr NLM19742810X
issn 1572-9575
journal_name International journal of theoretical physics
materialart 1
notes Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
package_name Springer
publikationsjahr_anzeige 1994
publikationsjahr_facette 1994
publikationsjahr_intervall 8009:1990-1994
publikationsjahr_sort 1994
publisher Springer
reference 33 (1994), S. 2189-2198
search_space articles
shingle_author_1 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
shingle_author_2 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
shingle_author_3 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
shingle_author_4 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
shingle_catch_all_1 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
Condensed matter effects in the solar neutrino problem
Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
1572-9575
15729575
Springer
shingle_catch_all_2 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
Condensed matter effects in the solar neutrino problem
Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
1572-9575
15729575
Springer
shingle_catch_all_3 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
Condensed matter effects in the solar neutrino problem
Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
1572-9575
15729575
Springer
shingle_catch_all_4 Rabinowitz, M.
Kim, Y. E.
Yoon, J. -H.
Condensed matter effects in the solar neutrino problem
Abstract In addition to our earlier corrections to fusion cross sections, we proposed that previously overlooked condensed matter effects (CME) can help to account for the missing solar neutrino flux. There are three important CME. One is due to a reduction in collision frequency due to an exchange of kinetic and potential energies in collision processes. Another is an excluded volume effect. The third is a shadowing effect due to the presence of spectator species which do not participate in fusion. These CME become appreciable in the high densities encountered in stellar media where they significantly affect fusion rates, since the solar core plasma cannot accurately be described as a collisionless ideal gas. Contrary to Bahcall and Gould (1993), we do not violate Liouville's theorem, the Maxwellian distribution, nor thermodynamics in our proposed solution to the solar neutrino problem.
1572-9575
15729575
Springer
shingle_title_1 Condensed matter effects in the solar neutrino problem
shingle_title_2 Condensed matter effects in the solar neutrino problem
shingle_title_3 Condensed matter effects in the solar neutrino problem
shingle_title_4 Condensed matter effects in the solar neutrino problem
sigel_instance_filter dkfz
geomar
wilbert
ipn
albert
fhp
source_archive Springer Online Journal Archives 1860-2000
timestamp 2024-05-06T09:52:45.903Z
titel Condensed matter effects in the solar neutrino problem
titel_suche Condensed matter effects in the solar neutrino problem
topic U
uid nat_lic_papers_NLM19742810X