Michael P. Mortell, Robert E. O'Malley, Alexei Pokrovskii, and Vladimir Sobolev, Editors

Singular Perturbations and Hysteresis

This book brings together many important recent developments in the analysis of singular perturbation and hysteresis phenomena in an accessible and reasonably comprehensive fashion. To bridge a gap between practitioners of these phenomena, the editors conducted a workshop in April 2002 at University College Cork to provide a forum for experts in both fields to share their interests and knowledge. For this book, the editors have compiled research from those practitioners in areas such as reacting systems, semiconductor lasers, shock phenomena in economic modeling, and fluid mechanics, all with an emphasis on hysteresis and singular perturbations.

The book begins with a basic introduction to hysteresis and singular perturbations theory, including simple examples from both physics and mathematics. Later chapters address

applications of hysteresis to economics,

various aspects of the asymptotic theory of singularly perturbed systems,

typical problems of the asymptotic theory of contrast structures, and

the geometrical approach to an investigation of models with singular perturbations and hysteresis.

The editors intend for this text not only to be a useful and accessible introduction to techniques and the research literature but also to generate new ideas for researchers and to attract new researchers into this vibrant and dynamic field.

Audience

This is a book for applied mathematicians, engineers, and physicists curious about the important nonlinear phenomena of singular perturbations and hysteresis.

Contents

List of Contributors; Preface; Chapter 1: A NaEe View of Time Relaxation and Hysteresis, A. Pokrovskii, V. Sobolev; Chapter 2: Frustration Minimization, Hysteresis and the El Farol Problem, R. Cross, M. Grinfeld, H. Lamba, A. Pittock; Chapter 3: Hysteresis in Singularly Perturbed Problems, P. Krej?E Chapter 4: Combined Asymptotic Expansions, E. Beno, A. Fruchard, A. El Hamidi; Chapter 5: Contrast Structures of Alternating Type, A. Vasilieva; Chapter 6: Multi-Dimensional Internal Layers, N. Nefedov; Chapter 7: Geometry of Singular Perturbations: Critical Cases, V. Sobolev; Chapter 8: Black Swans and Canards in Laser and Combustion Models, E. Shchepakina, V. Sobolev; Chapter 9: Multi-Scale Analysis of Pressure Driven Flames, V. Bykov, I. Goldfarb, V. Golshtein; Chapter 10: Split-Hyperbolicity, Hysteresis and Lang-Kobayashi Equations, A. Pokrovskii, O. Rasskazov, R. Studdert; Index.

Available June 2005 / Approx. 360 pages / Softcover / ISBN 0-89871-597-0

Stein W. Wallace and William T. Ziemba, Editors

Applications of Stochastic Programming

MPS-SIAM Book Series on Optimization 5

Research on algorithms and applications of stochastic programming, the study of procedures for decision making under uncertainty over time, has been very active in recent years and deserves to be more widely known. This is the first book devoted to the full scale of applications of stochastic programming and also the first to provide access to publicly available algorithmic systems. The 32 contributed papers in this volume are written by leading stochastic programming specialists and reflect the high level of activity in recent years in research on algorithms and applications. The book introduces the power of stochastic programming to a wider audience and demonstrates the application areas where this approach is superior to other modeling approaches.

Applications of Stochastic Programming consists of two parts. The first part presents papers describing publicly available stochastic programming systems that are currently operational. All the codes have been extensively tested and developed and will appeal to researchers and developers who want to make models without extensive programming and other implementation costs. The codes are a synopsis of the best systems available, with the requirement that they be user-friendly, ready to go, and publicly available.

The second part of the book is a diverse collection of application papers in areas such as production, supply chain and scheduling, gaming, environmental and pollution control, financial modeling, telecommunications, and electricity. It contains the most complete collection of real applications using stochastic programming available in the literature. The papers show how leading researchers choose to treat randomness when making planning models, with an emphasis on modeling, data, and solution approaches.

Audience

Researchers in stochastic programming will find this book an excellent source of publicly available codes. Those interested in creating their own applications, and those looking for real applications to introduce stochastic programming in the classroom, will find the book a valuable resource.

Contents

Preface: Part I: Stochastic Programming Codes; Chapter 1: Stochastic Programming Computer Implementations, Horand I. Gassmann, SteinW.Wallace, and William T. Ziemba; Chapter 2: The SMPS Format for Stochastic Linear Programs, Horand I. Gassmann; Chapter 3: The IBM Stochastic Programming System, Alan J. King, Stephen E.Wright, Gyana R. Parija, and Robert Entriken; Chapter 4: SQG: Software for Solving Stochastic Programming Problems with Stochastic Quasi-Gradient Methods, Alexei A. Gaivoronski; Chapter 5: Computational Grids for Stochastic Programming, Jeff Linderoth and Stephen J.Wright; Chapter 6: Building and Solving Stochastic Linear Programming Models with SLP-IOR, Peter Kall and Janos Mayer; Chapter 7: Stochastic Programming from Modeling Languages, Emmanuel Fragniere and Jacek Gondzio; Chapter 8: A Stochastic Programming Integrated Environment (SPInE), P. Valente, G. Mitra, and C. A. Poojari; Chapter 9: Stochastic Modelling and Optimization Using Stochastics? , M. A. H. Dempster, J. E. Scott, and G.W. P. Thompson; Chapter 10: An Integrated Modelling Environment for Stochastic Programming, Horand I. Gassmann and David M. Gay; Part II: Stochastic Programming Applications; Chapter 11: Introduction to Stochastic Programming Applications Horand I. Gassmann, Sandra L. Schwartz, SteinW.Wallace, and William T. Ziemba Chapter 12: Fleet Management, Warren B. Powell and Huseyin Topaloglu; Chapter 13: Modeling Production Planning and Scheduling under Uncertainty, A. Alonso-Ayuso, L. F. Escudero, and M. T. Ortuno; Chapter 14: A Supply Chain Optimization Model for the Norwegian Meat Cooperative, A. Tomasgard and E. Hoeg; Chapter 15: Melt Control: Charge Optimization via Stochastic Programming, Jitka Dupa?cova and Pavel Popela; Chapter 16: A Stochastic Programming Model for Network Resource Utilization in the Presence of Multiclass Demand Uncertainty, Julia L. Higle and Suvrajeet Sen; Chapter 17: Stochastic Optimization and Yacht Racing, A. B. Philpott; Chapter 18: Stochastic Approximation, Momentum, and Nash Play, H. Berglann and S. D. Flam; Chapter 19: Stochastic Optimization for Lake Eutrophication Management, Alan J. King, Laszlo Somlyody, and Roger J.-B.Wets; Chapter 20: Mitigating Anthropogenic Climate Change, GaryW. Yohe; Chapter 21: Groundwater Pollution Control, David W.Watkins, Jr., Daene C. McKinney, and David P. Morton; Chapter 22: Catastrophic Risk Management: Flood and Seismic Risks Case Studies, Tatiana Ermolieva and Yuri Ermoliev; Chapter 23: Refinancing Mortgages in Switzerland, Karl Frauendorfer and Michael Schurle; Chapter 24. Optimization Models for Structuring Index Funds, Stavros A. Zenios; Chapter 25: Decentralized Risk Management for Global P/C Insurance Companies, John M. Mulvey and Hafize Gaye Erkan; Chapter 26: Wealth Goals Investing, Leonard C. MacLean, Yonggan Zhao, and William T. Ziemba; Chapter 27: Scenario-Based Risk Management Tools, Helmut Mausser and Dan Rosen; Chapter 28: Price Protection Strategies for an Oil Company, E. A. Medova and A. Sembos; Chapter 29: Numerical Comparison of CVaR and CDaR Approaches: Application to Hedge Funds, P. Krokhma, S. Uryasev, and G. Zrazhevsky; Chapter 30: Stochastic Unit Commitment in Hydro-Thermal Power Production Planning, Nicole Growe-Kuska and Werner Romisch; Chapter 31: Valuation of Electricity Generation Capacity, Shi-Jie Deng and Shmuel S. Oren; Chapter 32: Stochastic Optimization Problems in Telecommunications, Alexei A. Gaivoronski; Index

Available June 2005 / xvi + 704 pages / Softcover / ISBN 0-89871-555-5

Rush D. Robinett III, David G. Wilson, G. Richard Eisler, John E. Hurtado

Applied Dynamic Programming for Optimization of Dynamical Systems

Advances in Design and Control 9

Based on the results of over 10 years of research and development by the authors, this book presents a broad cross section of dynamic programming (DP) techniques applied to the optimization of dynamical systems. The main goal of the research effort was to develop a robust path planning/trajectory optimization tool that did not require an initial guess. The goal was partially met with a combination of DP and homotopy algorithms. DP algorithms are presented here with a theoretical development, and their successful application to variety of practical engineering problems is emphasized.

Applied Dynamic Programming for Optimization of Dynamical Systems presents applications of DP algorithms that are easily adapted to the readerfs own interests and problems. The book is organized in such a way that it is possible for readers to use DP algorithms before thoroughly comprehending the full theoretical development. A general architecture is introduced for DP algorithms emphasizing the solution to nonlinear problems. DP algorithm development is introduced gradually with illustrative examples that surround linear systems applications. Many examples and explicit design steps applied to case studies illustrate the ideas and principles behind DP algorithms.

DP algorithms potentially address a wide class of applications composed of many different physical systems described by dynamical equations of motion that require optimized trajectories for effective maneuverability. The DP algorithms determine control inputs and corresponding state histories of dynamic systems for a specified time while minimizing a performance index. Constraints may be applied to the final states of the dynamic system or to the states and control inputs during the transient portion of the maneuver.

Audience

Physicists and mechanical, electrical, aerospace, and industrial engineers will find this book enormously useful. It will also appeal to research scientists and engineering students who have a background in dynamics and control and are able to develop and apply the DP algorithms to their particular problems. This book is suitable as a reference or supplemental textbook for graduate courses in optimization of dynamical and control systems.

Contents

List of Figures; Preface; List of Tables; Chapter 1: Introduction; Chapter 2: Constrained Optimization; Chapter 3: Introduction to Dynamic Programming; Chapter 4: Advanced Dynamic Programming; Chapter 5: Applied Case Studies; Appendix A: Mathematical Supplement; Appendix B: Applied Case Studies - MATLAB Software Addendum; Bibliography; Index.

Available July 2005 / xviii + 259 pages / Hardcover / ISBN 0-89871-586-5


Poernomo, Iman Hafiz, Crossley, J.N., Wirsing, Martin

Adapting Proofs-as-Programs
The Curry--Howard Protocol

Series: Monographs in Computer Science
2005, XII, 420 p. 54 illus., Hardcover
ISBN: 0-387-23759-3

About this book

This monograph details several important advances in the area known as the proofs-as-programs paradigm, a set of approaches to developing programs from proofs in constructive logic. It serves the dual purpose of providing a state-of-the-art overview of the field and detailing tools and techniques to stimulate further research.

One of the bookfs central themes is a general, abstract framework for developing new systems of program synthesis by adapting proofs-as-programs to new contexts, which the authors call the Curry--Howard Protocol. This protocol is used to provide two novel applications for industrial-scale, complex software engineering: contractual imperative program synthesis and structured software synthesis. These applications constitute an exemplary justification for the applicability of the protocol to different contexts.

The book is intended for graduate students in computer science or mathematics who wish to extend their background in logic and type theory as well as gain experience working with logical frameworks and practical proof systems. In addition, the proofs-as-programs research community, and the wider computational logic, formal methods and software engineering communities will benefit. The applications given in the book should be of interest for researchers working in the target problem domains.

Table of contents

Part I. Prologue.- Introduction.- Part II. Generalizing Proofs-as-Programs.- Functional Program Synthesis.- The Curry--Howard protocol.- Part III. Imperative Proofs-as-Programs.- Intuitionistic Hoare Logic.- Properties of Intuitionistic Hoare Logic.- Proofs-as-Imperative-Programs.- Part IV. Structured Proofs-as-Programs.- Reasoning about Structured Specifications.- Proof-theoretic Properties of SSL.- Structured Proofs-as-Programs.- Generic Specifications.- Structured Program Synthesis.- Part V. Epilogue.- Conclusions: Toward Constructive Logic as a Practical 4GL.- Part VI. Appendix.- A: Constructive Logic.- References.- Index.

Diestel, Reinhard

Graph Theory, 3rd ed.

Series: Graduate Texts in Mathematics, Vol. 173
2005, Approx. 430 p., Hardcover
ISBN: 3-540-26182-6

About this textbook

The third edition of this standard textbook of modern graph theory has been carefully revised, updated, and substantially extended. Covering all its major recent developments it can be used both as a reliable textbook for an introductory course and as a graduate text: on each topic it covers all the basic material in full detail, and adds one or two deeper results (again with detailed proofs) to illustrate the more advanced methods of that field.

From the reviews of the first two editions (1997, 2000):

"This outstanding book cannot be substituted with any other book on the present textbook market. It has every chance of becoming the standard textbook for graph theory."

Acta Scientiarum Mathematiciarum

"The book has received a very enthusiastic reception, which it amply deserves. A masterly elucidation of modern graph theory."

Bulletin of the Institute of Combinatorics and its Applications

"A highlight of the book is what is by far the best account in print of the Seymour-Robertson theory of graph minors."

Mathematika

". . . like listening to someone explain mathematics."

Bulletin of the AMS

Table of contents

The Basics.- Matching, Covering and Packing.- Connectivity.- Planar Graphs.- Colouring.- Flows.- External Graph Theory.- Infinite Graphs.- Ramsey Theory for Graphs.- Hamilton Cycles.- Random Graphs.- Minors, Trees, and WQO.- A: Infinite Sets.- B: Surfaces.

Gardner, Martin

The Last Recreations
Hydras, Eggs, and Other Mathematical Mystifications

2005, X, 392 p. 180 illus., 3 in colour., Softcover
ISBN: 0-387-25827-2

About this book

Of all of Martin Gardners writings, none gained him a wider audience or was more central to his reputation than his Mathematical Recreations column in Scientific American - which virtually defined the genre of popular mathematics writing for a generation. Flatland, Hydras and Eggs: Mathematical Mystifications is the final collection of these columns, covering the period roughly from 1979 to Gardners retirement in 1986. As always in his published collections, Gardner includes letters commenting on the ideas presented in his articles. These columns show him at the top of his form and should not be missed by anyone with an interest in mathematics.

Table of contents

Wonders of the Planiverse.- Bulgarian Solitaire and Other Seemingly Endless Tasks.- Fun with Eggs.- Fun with Eggs.-The Topology of Knots. M-Pire Maps.- Directed Graphs and Cannibals.- Dinner Guests, Schoolgirls, and Handcuffed Prisoners.- The Monster and Other Sporadic Groups.- Taxicab Geometry.- The Power of the Pigeonhole.- Strong Laws of Small Primes.- Checker Recreations.- Checker Recreations.- Modulo Arithmetic and Hummer's Witch.- Lavinia's Room and Other Problems.- The Symmetry Art of Scott Kim.- Parabolas.- Non-Euclidian Geometry.- Voting Mathematics.- A Toroidal Paradox and Other Problems.- Minimal Steiner Trees.- Trivalent Graphs, Snarks, and Boojums.