G. Waldo Dunnington, With contributions by Jeremy Gray

Gauss
Titan of Science

600 pages 49 line diagrams

Hardback | ISBN: 0-88385-538-0 | Not yet published - available from August 2004

This biography of Gauss, by far the most comprehensive in English, is the work of a professor of German, G. Waldo Dunnington, who devoted most of his scholarly career to studying the life of Germany's greatest mathematician. The author was inspired to pursue this project at the age of twelve when he learned from his teacher in Missouri that no full biography of Gauss existed at the time. His teacher was Gauss’s great granddaughter, Minna Waldeck Gauss. Long out of print and almost impossible to find on the used book market, this valuable piece of scholarship is being reissued in an augmented form with introductory remarks, an expanded and updated bibliography, and a commentary on Gauss’s mathematical diary, by the eminent British mathematical historian, Jeremy Gray.

Contents
1. Introduction: family background; 2. The enchanted boyhood; 3. Student days; 4. The young man; 5. Astronomy and matrimony; 6. Further activity; 7. Back to Gotingen; 8. Labour and sorrow; 9. The young professor: a decade of discovery, 1812E822; 10. Geodesy and bereavement: the transitional decade, 1822E832; 11. Alliance with Weber: strenuous years; 12. The electromagnetic telegraph; 13. Magnetism: physics dominant; 14. Surface theory, crystallography, and optics; 15. Germination: non-Euclidean geometry; 16. Trials and triumphs: experiencing conflict; 17. Milestones on the highways and byways; 18. Senex mirabilis; 19. Monarch of mathematics in Europe; 20. The doyen of German science, 1832E855; 21. Gathering up the threads: a broad horizon; 22. Religio Scientiae: a profession of belief from the philosopher and lover of truth; 23. Sunset and eventide: renunciation; 24. Epilogue: 1. Apotheosis: orations of Ewald and Sartorious; 2. Valhalla: posthumous recognition and honours; Appendices; Index.

I. N. Herstein

Noncommutative Rings

200 pages

Hardback | ISBN: 0-8838-5015-X | Not yet published - available from August 2004

A classic advanced textbook, containing a cross-section of ideas, techniques and results that give the reader an unparalleled introductory overview of the subject. The author gives an integrated presentation of overall theory and its applications in, for example, the study of groups of matrices, group representations, and in settling the problems of Burnside and Kurosh. Readers are also informed of open questions. Definitions are kept to a minimum and the statements of the theorems are sharp and clear.

Contents

1. The Jacobson radical; 2. Semisimple rings; 3. Commutativity theorems; 4. Simple algebras; 5. Representations of finite groups; 6. Polynomial identities; 7. Goldiefs theorem; 8. The Golob-Shafarevitch theorem.

Reviews

eThis beautiful book is the result of the author's wide and deep knowledge of the subject matter combined with his gift for exposition cThe well selected material is offered in an integrated presentation of the structure theory of noncommutative (associative rings) and its applications. Besides seeing the theory at work in the study of groups of matrices, group representations, and in settling the problems of Burnside and Kurosh, there are, or there are given the bases for the construction of counterexamples, so the reader can see how a theorem fails under weaker assumptions. Readers are also informed of open questions and of the latest generalizations not presented in the book c the style is lively and smooth. Definitions are kept to a minimum and the statements of the theorems are sharp and clear. This book will appeal to many a reader. It would be wonderful as a textbook c those interested in studying or reviewing its subject matter or looking for a rounded account of it could do no better than choosing this book for this purpose.f AMS Bulletin

Edited by Paul Ruet, Thomas Ehrhard, Jean-Yves Girard, Phil Scott

Linear Logic in Computer Science

391 pages 75 exercises 150 figures 50 worked examples

Paperback | ISBN: 0-521-60857-0 | Not yet published - available from August 2004

Linear Logic is a branch of proof theory which provides refined tools for the study of the computational aspects of proofs. These tools include a duality-based categorical semantics, an intrinsic graphical representation of proofs, the introduction of well-behaved non-commutative logical connectives, and the concepts of polarity and focalisation. These various aspects are illustrated here through introductory tutorials as well as more specialised contributions, with a particular emphasis on applications to computer science: denotational semantics, lambda-calculus, logic programming and concurrency theory. The volume is rounded-off by two invited contributions on new topics rooted in recent developments of linear logic. The book derives from a summer school that was the climax of the EU Training and Mobility of Researchers project eLinear Logic in Computer Sciencef. It is an excellent introduction to some of the most active research topics in the area.

Contents

Part I. Tutorials: 1. Category theory for linear logicians R. Blute and Ph. Scott; 2. Proof nets and the x-calculus S. Guerrini; 3. An overview of linear logic programming D. Miller; 4. Linearity and nonlinearity in distributed computation G. Winskel; 5. An axiomatic approach to structural rules for locative linear logic J. M. Andreoli; 6. An introduction to uniformity in ludics C. Faggian, M. R. Fleury-Donnadieu and M. Quatrini; 7. Slicing polarized addictive normalization O. Laurent and L. Toratora De Falco; 8. A topological correctness criterion for muliplicative noncommutative logic P.A. Mellies; 9. Bicategories in algebra and linguistics J. Lambek; 10. Between logic and quantic: a tract J. Y. Girard.

Roel Snieder

A Guided Tour of Mathematical Methods For the Physical Sciences, 2nd Edition

519 pages 126 line diagrams 6 half-tones 6 tables

Hardback | ISBN: 0521834929 | Not yet published - available from August 2004

Mathematical methods are essential tools for all physical scientists. This second edition provides a comprehensive tour of the mathematical knowledge and techniques that are needed by students in this area. In contrast to more traditional textbooks, all the material is presented in the form of problems. Within these problems the basic mathematical theory and its physical applications are well integrated. The mathematical insights that the student acquires are therefore driven by their physical insight. Topics that are covered include vector calculus, linear algebra, Fourier analysis, scale analysis, complex integration, Greenfs functions, normal modes, tensor calculus, and perturbation theory. The second edition contains new chapters on dimensional analysis, variational calculus, and the asymptotic evaluation of integrals. This book can be used by undergraduates, and lower-level graduate students in the physical sciences. It can serve as a stand-alone text, or as a source of problems and examples to complement other textbooks.

Contents
1. Introduction; 2. Dimensional analysis; 3. Power series; 4. Spherical and cylindrical coordinates; 5. The gradient; 6. The divergence of a vector field; 7. The curl of a vector field; 8. The theorem of Gauss; 9. The theorem of Stokes; 10. The Laplacian; 11. Conservation laws; 12. Scale analysis; 13. Linear algebra; 14. The Dirac delta function; 15. Fourier analysis; 16. Analytic functions; 17. Complex integration; 18. Greenfs functions: principles; 19. Greenfs functions: examples; 20. Normal modes; 21. Potential theory; 22. Cartesian tensors; 23. Perturbation theory; 24. Asymptotic evaluation of integrals; 25. Variational calculus; 26. Epilogue, on power and knowledge; References.

John B. Garnett, Donald E. Marshall

Harmonic Measure

488 pages 126 line diagrams 1 table 190 exercises
Hardback | ISBN: 0-521-47018-8 | Not yet published - available from January 2005

Series: NEW MATHEMATICAL MONOGRAPHS

During the last two decades several remarkable new results were discovered about harmonic measure in the complex plane. This book provides a careful survey of these results and an introduction to the branch of analysis which contains them. Many of these results, due to Bishop, Carleson, Jones, Makarov, Wolff and others, appear here in book form for the first time. The book is accessible to students who have completed standard graduate courses in real and complex analysis. The first four chapters provide the needed background material on univalent functions, potential theory, and extremal length, and each chapter has many exercises to further inform and teach the readers.

Contents
1. Jordan domains; 2. Finitely connected domains; 3. Potential theory; 4. Extremal distance; 5. Applications and reverse inequalities; 6. Simply connected domains, part one; 7. Bloch functions and quasicircles; 8. Simply connected domains, part two; 9. Infinitely connected domains; 10. Rectifiability and quadratic expressions; Appendices.