ISBN: 0-470-86306-4
Hardcover
384 pages
April 2006
Description
There has been an explosion of interest in the area of
uncertainty analysis in recent years, and a vast amount of
research has been published. It is key to any scientific
disciplines that employs the use of statistical models to
simulate complex real-world phenomena.. There is a real need for
a book that presents the mathematical theory of uncertainty
analysis, and provides practical insight into how the theory may
be applied to real problems. This book provides both the
mathematical foundations and practical application, with software
support using UNICORN software. This software has been developed
by the authors and can be used to model and analyse uncertainty
in complex problems. A version tailored specifically for the book
is included on a supplementary Web site, that also features
macros and data sets to support the examples in the book. The
first-named author is a leading authority in uncertainty
analysis, with two highly-regarded books in the area, and his
group is at the forefront of research in the area.
Provides a comprehensive overview of the foundations and
applications of uncertainty analysis.
Covers a number of key topics, including uncertainty elicitation,
dependence modelling, sensitivity analysis and probabilistic
inversion.
Illustrated throughout by numerous worked examples and
applications.
Includes software support for the examples using UNICORN ? a
Windows-based uncertainty modelling package developed by the
authors.
Includes a section of workbook problems, enabling use for
teaching.
Accompanied by a Website featuring a version of the UNICORN
software tailored specifically for the book; as well as computer
programs and data sets to support the examples.
Table of contentes
Series: Statistics: A Series of Textbooks and Monographs Volume: 187
ISBN: 1574446134
Publication Date: 2/8/2006
Number of Pages: 304
Contains a concise review of probability concepts
Discusses topics such as sufficiency, ancillarity, point
estimation, and minimum variance estimation
Includes worked examples of core statistical principles as well
as numerous exercises with hints
Introduces techniques of two-stage sampling, tests of hypotheses,
and nonparametric methods
Introductory Statistical Inference develops the concepts and
intricacies of statistical inference. With a review of
probability concepts, this book discusses topics such as
sufficiency, ancillarity, point estimation, minimum variance
estimation, confidence intervals, multiple comparisons, and large-sample
inference. It introduces techniques of two-stage sampling,
fitting a straight line to data, tests of hypotheses,
nonparametric methods, and the bootstrap method. It also features
worked examples of statistical principles as well as exercises
with hints. This text is suited for courses in probability and
statistical inference at the upper-level undergraduate and
graduate levels.
Table of Contents
Review of Probability and Related Concepts. Sufficiency,
Completeness, and Ancillarity. Point Estimation. Tests of
Hypotheses. Confidence Interval Estimation. Bayesian Methods.
Likelihood Ratio and Other Tests. Large-Sample Inference. Sample
Size Determination: Two-Stage Procedures. Regression Analysis:
Fitting a Straight Line. Nonparametric Methods. Bootstrap Methods.
Appendix. References.
(Hardback)
0-19-857102-X
Publication date: 29 June 2006
Clarendon Press 400 pages, 31 black and white line drawings, 234mm
x 156mm
Series: Oxford Mathematical Monographs
Description
Authored by a leading name in the field
Timely and topical coverage of an exciting research area
Includes many exercises and open questions
The 1995 work of Wiles and Taylor-Wiles opened up a whole new
technique in algebraic number theory and, a decade on, the waves
caused by this incredibly important work are still being felt.
This book, authored by a leading researcher, describes the
striking applications that have been found for this technique. In
the book, the deformation theoretic techniques of Wiles-Taylor
are first generalized to Hilbert modular forms (following
Fujiwara's treatment), and some applications found by the author
are then discussed. With many exercises and open questions given,
this text is ideal for researchers and graduate students entering
this research area.
Readership: Graduates and researchers in number theory and pure
mathematics
Contents
Preface
1 Introduction
2 Automorphic forms on inner forms of GL(2)
3 Hecke algebras as Galois deformation rings
4 Geometric modular forms
5 Modular Iwasawa theory
References
Index
(Hardback)
0-19-856827-4
Publication date: 29 June 2006
Clarendon Press 304 pages, 2 b/w line drawings, 234mm x 156mm
Series: Oxford Logic Guides
Description
A major contribution to the field
An excellent reference by world-renowned experts
Contains graded exercises at the end of each chapter to aid the
reader's understanding
Ends with a list of twenty open questions remaining in the field
Aimed at graduate students and research logicians and
mathematicians, this much-awaited text covers over forty years of
work on relative classification theory for non-standard models of
arithmetic. With graded exercises at the end of each chapter, the
book covers basic isomorphism invariants: families of types
realized in a model, lattices of elementary substructures and
automorphism groups. Many results involve applications of the
powerful technique of minimal types due to Haim Gaifman, and some
of the results are classical but have never been published in a
book form before.
Readership: Graduates and researchers in logic and mathematics
Contents
Preface
1 Basics
2 Extensions
3 Minimal and other types
4 Substructure lattices
5 How to control types
6 Generics and forcing
7 Cuts
8 Automorphisms of recursively saturated models
9 Automorphism groups of recursively saturated models
10 Omega 1-like models
11 Order types
12 Twenty questions
References
Index
gThis book is a solid treatise on the (contemporary) calculus of variations.
The material presented is quite extensive and slightly nontraditional.
For example, the authors include a chapter on convex duality and subdifferential
calculus. Often, books on the modern calculus of variations and books devoted
to convex optimization have little if any overlap. I believe readers will
appreciate the nontrivial overlap in the present text.h
? Rustum Choksi, Associate Professor of Applied and Computational
Mathematics, Simon Fraser University.
"The second part has some discussion of more advanced
background material (such as BV and SBV functions) needed for
work on many modern variational problems, as well as discussions
of recent results on a variety of problems, including variational
approaches to image segmentation, fracture mechanics, and shape
optimization."
? Robert Jerrard, Professor of Mathematics, University of Toronto.
This self-contained book is excellent for graduate-level courses
devoted to variational analysis, optimization, and partial
differential equations (PDEs). It provides readers with a
complete guide to problems in these fields as well as a detailed
presentation of the most important tools and methods of
variational analysis. New trends in variational analysis are also
presented, along with recent developments and applications in
this area. Variational Analysis in Sobolev and BV Spaces:
Applications to PDEs and Optimization is not just for students,
however; it is a comprehensive guide for anyone who wants to
approach the field of variational analysis in a systematic way,
starting from the most classical examples and working up to a
research level. This book also contains several applications to
problems in geometry, mechanics, elasticity, and computer vision,
along with a complete list of references.
Contents
Preface; Chapter 1: Introduction; Part I: First Part: Basic
Variational Principles; Chapter 2: Weak solutions methods in
variational analysis; Chapter 3: Abstract variational principles;
Chapter 4: Complements on measure theory; Chapter 5: Sobolev
spaces; Chapter 6: Variational problems: Some classical examples;
Chapter 7: The finite element method; Chapter 8: Spectral
Analysis of the Laplacian; Chapter 9: Convex duality and
optimization; Part II: Second Part: Advanced Variational Analysis.
Chapter 10: Spaces BV and SBV; Chapter 11: Relaxation in Sobolev,
BV and Young measures spaces; Chapter 12: s-convergence and
applications; Chapter 13: Integral functionals of the calculus of
variations; Chapter 14: Application in mechanics and computer
vision; Chapter 15: Variational problems with a lack of
coercivity; Chapter 16: An introduction to shape optimization
problems; Bibliography; Index.
Available December 2005 / xii + 634 pages / Softcover / ISBN 0-89871-600-4