by Paolo Carloni and Frank Alber (2002)
Computational methods are transforming the work of chemical and pharmaceutical laboratories. Increasingly faster and more exact simulation algorithms have made quantum chemistry a valuable tool in the search for active substances. Written by a team of leading international quantum chemists, this book is aimed at both beginners as well as experienced users of quantum chemical methods. All commonly used quantum chemical methods are treated here, including Density Functional Theory, quantum and molecular mechanical approaches. Numerous examples illustrate the use of these methods for dealing with.
Ira N. Levine
Providing an introduction to quantum chemistry, this book covers quantum mechanics, atomic structure, and molecular electronic structure. It demonstrates the usefulness and limitations of quantum-mechanical methods for the calculation of molecular properties. It is useful for beginning graduate and advanced undergraduate courses in this field.
Harry Mavromatis
This second edition of Exercises in Quantum Mechanics has been much revised, updated and enlarged in order to cater more comprehensively for the growing need of students of quantum mechanics to have a better insight and grasp of this fascinating but mathematically convoluted branch of physics. The number of illustrative problems solved has been increased from 114 to 228, and new exercises have been added to each of the chapters. The problems discussed have been carefully chosen so as to involve a minimum of technical complexity whilst emphasising the consequences of the quantum-mechanical formalism. Various chapters have been extended significantly and three new chapters are included to make this volume more complete and sophisticated in its coverage of elementary quantum mechanics, principally by including material dealing with angular momentum coupling and tensor algebra. The presentation of the material has also been made much more attractive. This revised edition will be especially useful to advanced undergraduate and graduate students of quantum mechanics and to all teachers of this subject.
W. Hollik, R. Rückl, J. Wess (eds
Although the Standard Model of strong and electroweak interactions describesparticle physics phenomena up to the vector boson mass scale very well, it is in general believed that it is not the ultimate theory. The aim of this series of seminars was to initiate discussions between field theorists and phenomenologically oriented high energy physicists on the observable consequenses of the concept of SUSY. The subjects covered by the individual contributions include an introduction to the basic features of SUSY models, in particular the minimal supersymmetric Standard Model, followed by discussions of the theoretical predictions and experimental findings on the particle content and mass spectra, cosmological consequenses, indirect manifestations through quantum effects, radiative corrections in the supersymmetric Higgs sector, and the concept of dynamical electroweak symmetry breaking in the context ofSUSY. These topics are treated at a level appropriate for advanced students.However, the book should also be useful for teachers and researchers.
Ulrich Mosel
This short and concise textbook is intended as a primer on path integral formalism both in classical and quantum field theories, although emphasis is on the latter. It is ideally suited as an intensive one-semester course, delivering the basics needed by readers to follow developments in field theory. Path Integrals in Field Theory paves the way for both more rigorous studies in fundamental mathematical issues as well as for applications in hadron, particle and nuclear physics, thus addressing students in mathematical and theoretical physics alike. Assuming some background in relativistic quantum mechanics, it complements the author’s monograph Fields, Symmetries, and Quarks (Springer, 1999).