Sir Nevill Mott 65 Years In Physics

This volume contains a discriminating selection of papers with commentaries by one of the most creative theoretical physicists of our century, Nobel Laureate Sir Nevill Mott. His pioneering contributions (1928 - 1993) include Fermi liquid theory, metal-insulator transition, the theory of noncrystalline materials, high-temperature superconductivity and many other discoveries.

The late Sir Nevill Mott was one of Britain's greatest ever and most admired scientists. A physicist of great repute, he was Britain's last Nobel Prize winner for Physics. This landmark book, published to celebrate Mott's 90th Birthday in 1995, explores the life and work of one of our best physicists.

Sir Nevill Mott was Britain's last Winner of the Nobel Prize for Physics. This is a tribute to the life and work of Nobel Laureate Nevill Mott, a hugely admired and appreciated man, and one of this countries greatest ever scientists. It includes contributions from over 80 of his friends, family and colleagues, full of anecdotes and appreciations for this collossus of modern physics.

The late Sir Nevill Mott was one of Britain's greatest ever and most admired scientists. A physicist of great repute, he was Britain's last Nobel Prize winner for Physics. This landmark book, published to celebrate Mott's 90th Birthday in 1995, explores the life and work of one of our best physicists.

The search for microscopic models to explain the many superconducting substances has introduced seminal concepts and techniques in many-body physics and in statistical mechanics. The complexity of the high-temperature superconductors has required a remarkable refinement of experimental techniques in order to allow a reliable characterization of the samples, and is partly the reason why so many different microscopic models have so far been proposed. This Enrico Fermi Course on Superconductivity was provided an up-to date presentation of selected experimental and theoretical theories on the (so called) conventional superconductivity and on the high temperature superconductivity. The attention was focused on those reliable measurements which are expected to provide the theory with key constraints, viz: Raman and Infrared Spectroscopy, Nuclear Spin Resonance, Angular Resolved Photoemission Spectroscopy, transport measurements, Josephson effect. The lectures devoted to the overview of the BCS theory and to the discussion of minimal models and of the crossover from BCS to Bose-Einstein condensation may be particularly useful. The remaining part of the program was shared between phonon and non-phonon based mechanisms. On the one hand, special emphasis has been devoted to the breakdown of the Migdal theorem and to polaronic theories. On the other, the book contains an overview of strongly correlated electron theories, including magnetic interactions. A survey of the physics of vortices completes the theoretical part of the lectures.

This book develops the mathematics of differential geometry in a way more intelligible to physicists and other scientists interested in this field. This book is basically divided into 3 levels; level 0, the nearest to intuition and geometrical experience, is a short summary of the theory of curves and surfaces; level 1 repeats, comments and develops upon the traditional methods of tensor algebra analysis and level 2 is an introduction to the language of modern differential geometry. A final chapter (chapter IV) is devoted to fibre bundles and their applications to physics. Exercises are provided to amplify the text material.