Broad in its coverage and simple in its treatment, this classic introduction to nuclear and subnuclear physics is geared toward advanced undergraduates and graduate students of physics, chemistry, and engineering with some familiarity of basic quantum mechanics. The three-part approach advances from a brief history and introduction to cover tools, the nucleus, and particles. The first section's topics include the passage of radiation through matter, detection methods for nuclear radiation, particle accelerators, and radioactive decay. Part two's subjects include the elements of nuclear structure and systematics, alpha and gamma emission, beta decay, the two-body systems and nuclear forces, nuclear reactions, and neutrons. The third and final part introduces particle physics and examines leptons, pions and other bosons, baryons, weak interactions, and high-energy collision of hadrons. Problems vary considerably in difficulty, and several appendixes offer valuable supplements to the text.

Student, collaborator and lifelong friend of Enrico Fermi, Emilio Segrè presents a rich, well-rounded portrait of the scientist, his methods, intellectual history, and achievements. Explaining in nontechnical terms the scientific problems Fermi faced or solved, Enrico Fermi, Physicist contains illuminating material concerning Fermi's youth in Italy and the development of his scientific style.Emilio Segre was awarded the Nobel Prize for Physics in 1959.

Student, collaborator and lifelong friend of Enrico Fermi, Emilio Segrè presents a rich, well-rounded portrait of the scientist, his methods, intellectual history, and achievements. Explaining in nontechnical terms the scientific problems Fermi faced or solved, Enrico Fermi, Physicist contains illuminating material concerning Fermi's youth in Italy and the development of his scientific style. Emilio Segre was awarded the Nobel Prize for Physics in 1959.

Called "one of our best science popularizers" by Publishers Weekly , Amir D. Aczel tackles the cause of one of last century's most destructive events--the scientific discovery of nuclear power. Drawing on his rich storytelling skills, Aczel presents the fascinating and suspenseful story of the scientists who first uncovered the potential of uranium. Uranium Wars takes the reader on a whirlwind tour of 1920s Europe where the scientific elite of the day were embroiled in a fierce rivalry to achieve nuclear fission. Leading us to an understanding of both the processes that take place inside a uranium nucleus and its destructive power are the brilliant men and women at the heart of the race--mammoth figures such as Marie Curie, Enrico Fermi, and Lise Meitner. Enmeshed in the story of scientific intrigue is the complex and ongoing story of uranium itself, which Aczel presents as a dynamic, dual natured force, capable of providing both abundant usable energy and generating unfathomable destructive power. From the nuclear programs in the Middle East to plans for nuclear reactors at home, the element uranium is never far from today's headlines.

From the recent discovery of the "top quark" to the search for the Higgs particle, the frontiers of particle physics beckon the imagination. Exploring in detail the full history of particle physics, Yuval Ne'eman and Yoram Kirsh explain in an engaging, nonmathematical style the principles of modern theories such as quantum mechanics and Einstein's relativity, and they brilliantly succeed in conveying to the reader the excitement that accompanied the original discoveries. The book is spiced with amusing stories on how great discoveries were made, and Ne'eman, who took an active role in some of the historical advances in particle physics, gives his personal point of view. New to this edition are sections on the discovery of the top quark; the rise and fall of the supercollider project; the detection of the Zo particle in e+e- colliders; and the use of the width of the Zo to determine the number of "generations" of quarks and leptons. The Particle Hunters will interest anyone who wants to keep pace with the progress of human knowledge. Yuval Ne'eman discovered the basic symmetry of the subatomic particles of matter, leading him to their classification, to the prediction of new particles, and to his identification (in 1962) of a new layer in the structure of matter ("quarks"). Yoram Kirsh was awarded the Aharon Katzir Prize for popular science writing in 1975.

This special book is a compilation of essays on a remarkable but little-known story that lasted over half a century of world-renown physicist, the late Sir Rudolf Peierls and his wife Genia Kannegiser. Peierls collected a lot of prestigious awards in his lifetime, and in the beginning of WW2, he and Otto Frisch were responsible for the inception of the Anglo-American nuclear program (1940). He was also one of the key contributors in the research at Los Alamos during those turbulent times. Most previous books on Peierls have focused on his scientific research, while the contents for this volume sheds light on his private life in dramatic circumstances. The extensive contributions were not only gathered from the relatives of Genia, the couple's daughters, Landau's students, and from Russian and English archives, but they also include the unique perspectives of the author who is a professional theoretical physicist and is also fluent in Russian, his native language. So, this fascinating story of love, friendship and physics between Rudolf and Genia is being told for the first time from a surprisingly new angle through correspondence between Genia and Rudolf, memoirs and other documents, interesting and informal excerpts from Peierls' private "diary" covering the years 1979-1994 that will take the reader on a journey through communism, world war, the trials and tribulations of the loving couple with distinctly very different personalities.

Born in New Zealand in 1871, Rutherford came to Cambridge in 1895, where he did notable research on the electrical properties of gases. This lead to his appointment as Professor at McGill University in Montreal, where he carried out fundamental investigations on radioactivity, which he continued at the University of Manchester. Here he first put forward the nuclear structure of the atom with which his name is inseparably connected. At Cambridge, as head of the Cavendish Laboratory from 1919 to his death in 1937, he conducted and inspired work on the properties and disruption of the atomic nucleus which ushered in a new era in physics.