ISBN: 0486449947
This introduction to Malliavin's stochastic calculus of
variations is suitable for graduate students and professional
mathematicians. Author Denis R. Bell particularly emphasizes the
problem that motivated the subject's development, with detailed
accounts of the different forms of the theory developed by
Stroock and Bismut, discussions of the relationship between these
two approaches, and descriptions of a variety of applications.
The text includes enough technical background to make the
subsequent material accessible to readers without specialized
knowledge of stochastic analysis.1987 edition.
Table of Contents
Introduction
1. Background material
2. The functional analytic approach
3. The variational approach
4. An elementary derivation of Malliavinfs inequalities
5. A discussion of the different forms of the theory
6. Non-degeneracy of the covariance matrix under Hormanderfs
condition
7. Some further applications of the Malliavin calculus
References
Index
ISBN: 048645021X
Offering classroom-proven results, Differential Topology presents
an introduction to point set topology via a naive version of
nearness space. Its treatment encompasses a general study of
surgery, laying a solid foundation for further study and greatly
simplifying the classification of surfaces. This self-contained
treatment features 88 helpful illustrations. Its subjects include
topological spaces and properties, some advanced calculus,
differentiable manifolds, orientability, submanifolds and an
embedding theorem, and tangent spaces. Additional topics comprise
vector fields and integral curves, surgery, classification of
orientable surfaces, and Whitney's embedding theorem. 1982 ed.
Table of Contents
1. What Is Topology?
2. Topological Spaces
3. Some Topological Properties
4. Some Advanced Calculus
5. Differentiable Manifolds
6. Orientability
7. Submanifolds and an Embedding Theorem
8. Tangent Spaces
9. Critical Points Again
10. Vector Fields and Integral Curves
11. Surgery
12. The Trace of a Surgery
13. Surgery on a Surface
14. Classification of Orientable Surfaces
15. Whitneyfs Embedding Theorem
Appendix A. The Unproved Theorems
Appendix B. Further Topics
Notation
Bibliography
Index
ISBN: 0486450260
A classic exposition of the branch of mathematical logic known as
category theory, this text is suitable for advanced
undergraduates and graduate students and accessible to both
philosophically and mathematically oriented readers. Beginning
with a survey of set theory and its role in mathematics, it
proceeds to definitions and examples of categories and explains
the use of arrows in the place of epsilon. Subsequent topics
include topos logic, algebra of subobjects, intuitionism and its
logic, functors, set concepts and validity, and elementary truth.
Explorations of categorial set theory, local truth, and
adjointness and quantifiers conclude with a study of logical
geometry. 1983 ed.
Table of Contents
1. Mathematics = Set Theory
2. What Categories Are
3. Arrows Instead of Epsilon
4. Introducing Topoi
5. Topos Structure: First Steps
6. Logic Classically Conceived
7. Algebra of Subobjects
8. Institutionism and Its Logic
9. Functors
10. Set Concepts and Validity
11. Elementary Truth
12. Categorial Set Theory
13. Arithmetic
14. Local Truth
15. Adjointness and Quantifiers
16. Logical Geometry
References
Catalogue of Notation
Index of Definitions
ISBN: 0486450112
This first course in differential geometry presents the
fundamentals of the metric differential geometry of curves and
surfaces in a Euclidean space of three dimensions, using vector
notation and technique. It also introduces Riemannian geometry.
Written by a noted mathematician, and suitable for advanced
undergraduates and graduate students, the text presupposes a
knowledge of calculus. The first nine chapters focus on the
theory, treating the basic properties of curves and surfaces, the
mapping of surfaces, and the absolute geometry of a surface; the
final chapter considers the applications of the theory to
selected classes of surfaces. Nearly 200 problems appear
throughout the text. 1935 ed.
Table of Contents
1. Introduction
2. Space Curves
3. Curves and Surfaces Associated with a Space Curve
4. Fundamentals of the Theory of Surfaces
5. Curvature. Important Systems of Curves
6. The Fundamental Theorem
7. Geodesic Curvature. Geodesics
8. Mapping of Surfaces
9. The Absolute Geometry of a Surface
10. Surfaces of Special Type
Index
ISBN: 0486450171
This volume presents research by algebraists and model theorists
in accessible form for advanced undergraduates or beginning
graduate students studying algebra, logic, or model theory. It
introduces a general method for building infinite mathematical
structures and surveys applications in algebra and model theory.
Starting with an overview of basic model theory, the text
examines a variety of algebraic applications, including
completeness for Magidor-Malitz quantifiers, Shelah's recent and
sophisticated omitting types theorem for L(Q), and applications
to Boolean algebras and models of arithmetic. More than 160
exercises range from elementary drills to research-related items.
1985 ed.
Table of Contents
1. Preliminaries
2. Games and Forcing
3. Existential Closure
4. Chaos or Regimentation
5. Classical Languages
6. Proper Extensions
7. Generalised Quantifiers
8. L(Q) in Higher Cardinalities
List of types of forcing
List of open questions
Bibiliography
Index
ISBN: 0486450783
In this famous work, a distinguished Russian mathematical scholar
presents an innovative approach to classical boundary value
problems -- one that may be used by mathematicians as well as by
theoreticians in mechanics. The first two chapters cover
variational principles of the theory of conformal mapping and
behavior of a conformal transformation on the boundary.
Succeeding chapters address hydrodynamic applications and quasi-conformal
mappings, as well as linear systems and the simplest classes of
non-linear systems.
Table of Contents
Introduction
1. Variational principles
2. Sufficient conditions
3. Generalizations
Chapter 1. Variational principles of the theory of conformal
mapping
1.1 The principles of Lindelof and Montel
1.1.1 The case of the circle
1.1.2 Mapping on to a strip
1.2 Mechanical interpretation
1.3 Quantitative estimates
Chapter 2. Behaviour of a conformal transformation on the
boundary
2.1 Derivatives at the boundary
2.2 Narrow strips
2.3 Behaviour of the extension at points of maximum inclination
and extreme curvature
Chapter 3. Hydrodynamic applications
3.1 Stream line flow
3.2 Generalizations
3.3 Stream line flow with detachment
3.4 Wave motions of a fluid
3.5 The linear theory of waves
3.6 Rayleigh waves
3.7 The exact theory
3.8 Generalizations
3.8.1 Motion of a fluid over a submarine trench
3.8.2 Motion over a bottom with a ridge
3.8.3 Spillway with singularities
Chapter 4. Quasi-conformal mappings
4.1 The concept of the quasi-conformal map
4.2 Derivative systems
4.3 Strong ellipticity
Chapter 5. Linear systems
5.1 Transformations with bounded distortion
5.1.1 Equi-graded continuity
5.1.2 Almost conformal mappings
5.2 The simplest class of linear systems
5.2.1 Invariance with respect to conformal mappings
5.2.2. Stability of conformal mappings
5.2.3 Condition of smoothness of a transformation
5.2.4 Application to arbitrary linear systems
5.2.5 Existence theorem
Chapter 6. The simplest classes of non-linear systems
6.1 Maximum principle
6.2 The principle of Schwarz-Lindelof
6.3 Quantitative estimates
6.4 Inductive proof of Lindelof's principle
6.5 The existence theorem
6.6 Generalizations
6.7 Hydrodynamic applications
References; Index