Olver, Peter J.; Tannenbaum, Allen (Eds.)

Mathematical Methods in Computer Vision

Series: The IMA Volumes in Mathematics and its Applications , Vol. 133

2003, Approx. 168 p. 86 illus., Hardcover
ISBN: 0-387-00497-1

About this book

This volume comprises some of the key work presented at two IMA Workshops on Computer Vision during fall of 2000. Recent years have seen significant advances in the application of sophisticated mathematical theories to the problems arising in image processing. Basic issues include image smoothing and denoising, image enhancement, morphology, image compression, and segmentation (determining boundaries of objectsuincluding problems of camera distortion and partial occlusion). Several mathematical approaches have emerged, including methods based on nonlinear partial differential equations, stochastic and statistical methods, and signal processing techniques, including wavelets and other transform theories. Shape theory is of fundamental importance since it is the bottleneck between high and low level vision, and formed the bridge between the two workshops on vision. The recent geometric partial differential equation methods have been essential in throwing new light on this very difficult problem area. Further, stochastic processes, including Markov random fields, have been used in a Bayesian framework to incorporate prior constraints on smoothness and the regularities of discontinuities into algorithms for image restoration and reconstruction. A number of applications are considered including optical character and handwriting recognizers, printed-circuit board inspection systems and quality control devices, motion detection, robotic control by visual feedback, reconstruction of objects from stereoscopic view and/or motion, autonomous road vehicles, and many others.

Table of contents

A large deviation theory analysis of Bayesian tree search * Expectation-based, multi-focal, saccadic vision * Statistical shape analysis in high-level vision * Maximal entropy for reconstruction of back projection images * On the Monge-Kantorovich problem and image warping * Analysis and synthesis of visual images in the brain: evidence for pattern theory * Nonlinear diffusions and optimal estimation * The Mumford-Shah functional: from segmentation to stereo

Written for:

Researchers, graduate students

Courtieu, Michel, Panchishkin, Alexei A.

Number Theory & Combinatorics, 2nd, augmented ed.
Non-Archimedean L-Functions and Arithmetical Siegel Modular Forms

Series: Lecture Notes in Mathematics , Vol. 1471
, 2003, VIII, 196 p., Softcover
ISBN: 3-540-40729-4
Due: December 1, 2003

About this book

This book, now in its 2nd edition, is devoted to the arithmetical theory of Siegel modular forms and their L-functions. The central object are L-functions of classical Siegel modular forms whose special values are studied using the Rankin-Selberg method and the action of certain differential operators on modular forms which have nice arithmetical properties. A new method of p-adic interpolation of these critical values is presented. An important class of p-adic L-functions treated in the present book are p-adic L-functions of Siegel modular forms having logarithmic growth. The given construction of these p-adic L-functions uses precise algebraic properties of the arithmetical Shimura differential operator. The book will be very useful for postgraduate students and for non-experts looking for a quick approach to a rapidly developing domain of algebraic number theory. This new edition is substantially revised to account for the new explanations that have emerged in the past 10 years of the main formulas for special L-values in terms of arithmetical theory of nearly holomorphic modular forms.

Table of contents

Introduction.- Non-Archimedean analytic functions, measures and distributions.- Siegel modular forms and the holomorphic projection operator.- Arithmetical differential operators on nearly holomorphic Siegel modular forms.- Admissible measures for standard L-functions and nearly holomorphic Siegel modular forms.

Written for:

Graduate students and researchers in algebraic number theory

Keywords: modular forms

Chow, S.-N., Conti, R., Johnson, R., Mallet-Paret, J., Nussbaum, R.
Macki, J. W.; Zecca, P. (Eds.)

Dynamical Systems
Lectures given at the C.I.M.E. Summer School held in Cetraro, Italy, June 19-26, 2000

Series: Lecture Notes in Mathematics, Vol. 1822

2003, XII, 345 p., Softcover
ISBN: 3-540-40786-3
Due: October 24, 2003

About this book

The C.I.M.E. session on Dynamical Systems, held in Cetraro (Italy), June 19-26, 2000, focused on the latest developments in several important areas in dynamical systems, with full development and historical context. The lectures of Chow and Mallet-Paret focus on the area of lattice differential systems, the lectures of Conto and Galleotti treat the classical problem of classification of orbits for two-dimensional autonomous systems with polynomial right sides, the lectures of Nussbaum focus on applications of fixed point theorems to the problem of limiting profiles for the solutions of singular perturbations of delay differential equations, and the lectures of Johnson and Mantellini deal with the existence of periodic and quasi-periodic orbits to non-autonomous systems. The volume will be of interest to researchers and graduate students working in these areas.

Table of contents

Preface.- S.-N. Chow: Lattice Dynamical Systems.- R. Conti, M. Galeotti: Totally bounded cubic systems in R2.- R. Johnson, F. Mantellini: Non-Autonomous Differential Equations.- J. Mallet-Paret: Traveling Waves in Spatially Discrete Dynamical Systems of Diffuse Type.- R.D. Nussbaum: Limiting Profiles For Solutions of Differential-Delay Equations

Written for:

Researchers and advanced students

Keywords: dynamical systems, differential equations

Bingham, Kenrick; Kurylev, Yaroslav V.; Somersalo, Erkki (Eds.)

New Analytic and Geometric Methods in Inverse Problems
Lectures given at the EMS Summer School and Conference held in Edinburgh, Scotland 2000

2004, XVI, 382 p., Hardcover
ISBN: 3-540-40682-4
Due: October 7, 2003

About this book

In inverse problems, the aim is to obtain, via a mathematical model, information on quantities that are not directly observable but rather depend on other observable quantities. Inverse problems are encountered in such diverse areas of application as medical imaging, remote sensing, material testing, geosciences and financing. It has become evident that new ideas coming from differential geometry and modern analysis are needed to tackle even some of the most classical inverse problems. This book contains a collection of presentations, written by leading specialists, aiming to give the reader up-to-date tools for understanding the current developments in the field.

Written for: Mathematicians, physicists

Keywords:

Inverse Problems for partial differential equations
Differential geometry
Integral geometry
Carleman estimates

Bourbaki, Nicolas

Integration I. Chapters 1-6.

Elements of Mathematics

2004, XVI, 472 p., Hardcover
ISBN: 3-540-41129-1

About this book

Integration is the sixth and last of the Books that form the core of the Bourbaki series; it draws abundantly on the preceding five Books, especially General Topology and Topological Vector Spaces, making it a culmination of the core six. The power of the tool thus fashioned is strikingly displayed in Chapter II of the author's Theories Spectrales [MR 35 #4725], an exposition, in a mere 38 pages, of abstract harmonic analysis and the structure of locally compact abelian groups. The present volume comprises Chapters 1-6 in English translation (a second volume will contain the remaining Chapters 7-9). The individual fascicles of the original French edition have been extensively reviewed [Chs. 1--4, MR 14, 960, 2e edn. MR 36 #2763; Ch. 5, MR 18, 881, 2e edn. MR 35 #322; Ch.6, MR 23 #A2033; Chs. 7-8, MR 31 #3539; Ch. 9, MR 43 #2183]. Chapters 1-5 received very substantial revisions in a second edition, including changes to some fundamental definitions. Chapters 6-8 are based on the first editions of Chs. 1-5. The English edition has given the author the opportunity to correct misprints, update references, clarify the concordance of Chapter 6 with the second editions of Chapters 1-5, and revise the definition of a key concept in Chapter 6 (measurable equivalence relations).

Written for: Mathematicians and graduate students