Updated with a new three-page introduction and three additional articles from 1998 and 2001, this collection of reprints focuses on solar models, neutrino experiments, nuclear reactions, neutrino oscillations and mixing, and helioseismology. The new papers (there are now 113 published between 1964 and 2001) report results of experiments at the Super-Kamiokande and Sudbury Neutrino Observatories and show that helioseismological measurements confirm the standard solar model predictions. There is no index. Annotation c. Book News, Inc., Portland, OR (booknews.com)
A collection of classic papers exploring the pivotal questions that shaped the field of physics.
The papers reprinted in this book depict a research field that is poised to answer some of the fundamental questions of twentieth-century physics and astronomy: How does the sun shine? What is the dark matter? Is there new physics beyond the ?standard model?This book is of interest to students as well as active researchers in the scientific areas spanned by the reprinted papers, which include physics, chemistry, astronomy, geology, and engineering. Historians of science, some of whom have already used the solar neutrino problem as a case study, will also find this collection a rich source of examples and insights.Solar Neutrinos gives one the special feeling of being present at the birth of a scientific field. The physical ideas are presented with a simplicity that is unusual in review of papers. By delving into the scientific landmarks reprinted here, one can see clearly how researchers-starting with a paucity of data and with conflicting hypothesis-struggled together to grope their way to a better understanding of the sun and of weak interaction physics. Three new papers have been added to the present paperback version; these papers represent breakthroughs in the field since the original 1994 hardcopy publication.
Papildus informācija
Raymond Davis, Jr., is the Noble Laureate in Physics, 2002.
I Standard Model Expectations, II Solar Neutrino Experiments, III
Nuclear Fusion Reactions, IV Physics Beyond the Standard Model, V
Helioseismology, VI Transition from Problem to Opportunity
John Bahcall has held positions at Indiana University, Caltech, and the Institute for Advanced Study. He is currently the Richard Black Professor of Natural Sciences at the Institute for Advanced Study and Visiting Lecturer with rank of Professor at Princeton University. He has received numerous awards, including the National Medal of Science and the Hans Bethe Prize from the American Physical Society in 1998. He has written several books, including Unsolved Problems in Astrophysics and The Decade of Discovery in Astronomy and Astrophysics He was recently awarded the Dan David prize for his wide-ranging contributions, given by the Tel Aviv-based Dan David Foundation. Peter Parker is Professor of Physics and Astronomy at Yale University in the Wright Nuclear Structure labouratory. Since his graduate student days, Parker has performed labouratory experiments to study nuclear reactions that are important in stars. Roger Ulrich is professor of Astronomy at the University of California, Los Angeles, and is active in the study of the solar interior using theoretical and observational methods. He first interpreted the periodic fluctuations observed on the solar surface as the solar analogue of terrestrial seismic waves. Raymond Davis, Jr. retired from a prestigious career at Brookhaven Lab, a multi-program national labouratory operated for the U.S. Dept. of Energy, to become a research professor at the University of Pennsylvania in 1984. A member of the National Academy of Sciences, Davis has won numerous scientific awards, including the Tom W. Bonner Prize in 1988 and the W.K.H. Panofsky Prize in 1992. Alexei Smirnov is senior research scientist at the International centre for Theoretical Physics (Trieste, Italy), and is also a leading research scientist at the Institute for nuclear research of the Russian Academy of Sciences in Moscow. Smirnov is a co-discoverer of the MSW (Mikhayev-Smirnov-Wolfenstein) effect, which describes how matter can enhance the flavor conversion of neutrinos, and is a leading particle phenomenologist.