Series: London Mathematical Society Lecture Note Series (No.
213)
Paperback (ISBN-10: 0521499283 | ISBN-13: 9780521499286)
June 2005 | 540 pages | 298 x 222 mm
Lecturers can request inspection copies of this title.
This is a comprehensive modern account of the theory of Lie
groupoids and Lie algebroids, and their importance in
differential geometry, in particular their relations with Poisson
geometry and general connection theory. It covers much work done
since the mid 1980s including the first treatment in book form of
Poisson groupoids, Lie bialgebroids and double vector bundles, as
well as a revised account of the relations between locally
trivial Lie groupoids, Atiyah sequences, and connections in
principal bundles. As such, this book will be of great interest
to all those concerned with the use of Poisson geometry as a semi-classical
limit of quantum geometry, as well as to all those working in or
wishing to learn the modern theory of Lie groupoids and Lie
algebroids.
Book includes many results which have never appeared in book
form before
Massive expansion of a successful earlier book
A thorough and detailed account of the subject
Contents
Part I. The General Theory: 1. Lie groupoids: fundamental theory;
2. Lie groupoids: algebraic constructions; 3. Lie algebroids:
fundamental theory; 4. Lie algebroids: algebraic constructions;
Part II. The Transitive Theory: 5. Infinitesimal connection
theory; 6. Path connections and Lie theory; 7. Cohomology and
Schouten calculus; 8. The cohomological obstruction; Part III.
The Poisson and Symplectic Theories: 9. Double vector bundles; 10.
Poisson structures and Lie algebroids; 11. Poisson and symplectic
groupoids; 12. Lie bialgebroids; Appendix; Bibliography; Index.
Series: Outlooks
Hardback (ISBN-10: 0521810523 )
Paperback (ISBN-10: 0521008832 )
June 2005
Honesty in voting, it turns out, is not always the best policy.
Indeed, in the early 1970s, Allan Gibbard and Mark Satterthwaite,
building on the seminal work of Nobel laureate Kenneth Arrow,
proved that with three or more alternatives there is no
reasonable voting system that is non-manipulable; voters will
always have an opportunity to benefit by submitting a
disingenuous ballot. The ensuing decades produced a number of
theorems of striking mathematical naturality that dealt with the
manipulability of voting systems. This book presents many of
these results from the last quarter of the twentieth century,
especially the contributions of economists and philosophers, from
a mathematical point of view, with many new proofs. The
presentation is almost completely self-contained, and requires no
prerequisites except a willingness to follow rigorous
mathematical arguments. Mathematics students, as well as
mathematicians, political scientists, economists and philosophers
will learn why it is impossible to devise a completely
unmanipulable voting system.
This is the only book that tries to bring together the main
results from the last quarter of the twentieth century that deal
with the manipulability of voting systems
This is a unified treatment; a vast majority of the proofs
are new
This is a self-contained treatment; there are no
prerequisites except a willingness to follow mathematical
arguments
Contents
1. Introduction; 2. The Gibbard-Satterthwaite theorem; 3.
Additional results for single-valued elections; 4. The Duggan-Schwartz
theorem; 5. Additional results for multi-valued elections; 6.
Ballots that rank sets; 7. Elections with outcomes that are
lotteries; 8. Elections with variable agendas; References; Index.
Panoramas et Syntheses 18 (2004), xii+156 pages
Resume
:
Ce volume a ete ecrit a l'occasion du centenaire de la
publication en 1901 de la fameuse note de Lebesgue introduisant
son integrale. Il fait suite a une journee de celebration
organisee a l'Ecole normale superieure de Lyon. On y trouvera
differents eclairages sur l'heritage de Lebesgue. Le temoignage
de Gustave Choquet redonne vie aux mathematiques et
mathematiciens de l'epoque de Lebesgue. Les textes de Pierre de
la Harpe et Bruno Sevennec sur les mesures finiment additives
analysent leurs paradoxes et leurs liens avec la notion de
moyennabilite ou l'equirepartition. La contribution de Herve
Pajot rend compte des progres considerables qui ont ete faits
recemment dans la comprehension de la notion de rectifiabilite,
en liaison avec la capacite analytique ou l'operateur de Cauchy;
celle de Thierry De Pauw part de l'integrale de Henstock et
Kurzweil pour s'interesser aux generalisations possibles de la
formule de la divergence. Enfin, la preface de Jean-Pierre Kahane
fait un lien entre tous ces eclairages, en meme temps qu'elle lui
permet d'evoquer l'influence mathematique de l'integrale de
Lebesgue tout au long du vingtieme siecle.
Mots clefs :
Capacite analytique, courbure de Menger, ensembles, ensembles a
perimetre fini, equirepartition, geometrie, groupe compact,
groupe moyennable, histoire, integrales, integrale de Cauchy,
integration, mesures, mesures finiment additives, mesure de Haar,
mesures de Hausdorff, moyennes invariantes, paradoxes,
probabilites, rectifiabilite, rectifiabilite uniforme, theoreme
de la divergence, trou spectral
Abstract:
Around the Lebesgue centenary
This volume was written on the occasion of the centennial of
Lebesgue's Publication in 1901 of his famous Note introducing his
integral. It results from a day of celebration at the Ecole
normale superieure de Lyon. It provides various viewpoints on
Lebesgue's heritage. Gustave Choquet gives a vivid testimony
about mathematics and mathematicians of Lebesgue's era.
Contributions by Pierre de la Harpe and by Bruno Sevennec on
finitely additive measures analyse their paradoxes and their
relationship with amenability or equirepartition. Herve Pajot
relates the recent and considerable progress made in
understanding the notion of rectifiability, in relation with the
analytic capacity or with the Cauchy operator. Thierry de Pauw,
starting from Henstock and Kurzweil's integral, studies
possibilities of generalizing the divergence formula. A preface
by Jean-Pierre Kahane synthesizes these viewpoints and highlights
Lebesgue's influence in the course of the twentieth century.
Key words:
Amenable groups, analytic capacity, Cauchy integral, compact
group, divergence theorem, equidistribution, finitely additive
measures, geometry, Haar measure, Hausdorff measures, history,
integration, integrals, invariant means, measures, Menger
curvature, paradoxes, probabilities, rectifiability, sets, sets
of finite perimeter, spectral gap, uniform rectifiability
Stein's startling technique for deriving probability
approximations first appeared about 30 years ago. Since then,
much has been done to refine and develop the method, but it is
still a highly active field of research, with many outstanding
problems, both theoretical and in applications. This volume, the
proceedings of a workshop held in honour of Charles Stein in
Singapore, August 2003, contains contributions from many of the
mathematicians at the forefront of this effort. It provides a
cross-section of the work currently being undertaken, with many
pointers to future directions. The papers in the collection
include applications to the study of random binary search trees,
Brownian motion on manifolds, Monte-Carlo integration, Edgeworth
expansions, regenerative phenomena, the geometry of random point
sets, and random matrices.
Contents:
Zero Biasing in One and Higher Dimensions, and Applications (L
Goldstein & G Reinert)
Poisson Limit Theorems for the Appearances of Attributes (O
Chryssaphinou et al.)
Normal Approximation in Geometric Probability (M D Penrose &
J E Yukich)
Stein's Method, Edgeworth's Expansions and a Formula of Barbour (V
Rotar)
Stein's Method for Compound Poisson Approximation via
Immigration?Death Processes (A Xia)
The Central Limit Theorem for the Independence Number for Minimal
Spanning Trees in the Unit Square (S Lee & Z Su)
Stein's Method, Markov Renewal Point Processes, and Strong
Memoryless Time (T Erhardsson)
Multivariate Poisson?Binomial Approximation Using Stein's Method
(A D Barbour)
An Explicit Berry?Esseen Bound for Student's t-Statistic via
Stein's Method (Q-M Shao)
An Application of Stein's Method to Maxima in Hypercubes (Z D Bai
et al.)
Exact Expectations of Minimal Spanning Trees for Graphs with
Random Edge Weights (J A Fill & J M Steele)
Limit Theorems for Spectra of Random Matrices with Martingale
Structure (F Gotze & A N Tikhomirov)
Characterization of Brownian Motion on Manifolds Through
Integration by Parts (E P Hsu)
On the Asymptotic Distribution of Some Randomized Quadrature
Rules (W-L Loh)
The Permutation Distribution of Matrix Correlation Statistics (A
D Barbour & L H Y Chen)
Applications of Stein's Method in the Analysis of Random Binary
Search Trees (L Devroye)
Readership: Researchers and graduate students in probability.
320pp Pub. date: May 2005
ISBN 981-256-281-8
Series: London Mathematical Society Lecture Note Series
Paperback (ISBN-10: 0521620589 )
June 2005
In recent years the application of random matrix techniques to analytic number theory has been responsible for major advances in this area of mathematics. As a consequence it has created a new and rapidly developing area of research. The aim of this book is to provide the necessary grounding both in relevant aspects of number theory and techniques of random matrix theory, as well as to inform the reader of what progress has been made when these two apparently disparate subjects meet. This volume of proceedings is addressed to graduate students and other researchers in both pure mathematics and theoretical physics. The contributing authors, who are among the world leading experts in this area, have taken care to write self-contained lectures on subjects chosen to produce a coherent volume.
Self-contained lectures by world-leading experts in the field
The volume is integrated, indexed and cross-referenced
This title covers the most important and recent advances in the subject
Contents
1. Introduction; 2. Prime number theory and the Riemann zeta-function; 3. Notes on pair correlation of zeros and prime numbers; 4. Notes on eigenvalue distributions for the classical compact groups; 5. Compound nucleus resonances, random matrices and quantum chaos; 6. Families of L-functions and 1-level densities; 7. Basic analytic number theory; 8. Applications of mean value theorems to the theory of the Riemann zeta function; 9. L-functions and the characteristic polynomials of random matrices; 10. Mock gaussian behaviour; 11. Some specimens of L-functions; 12. Computational methods and experiments in analytic number theory.