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Functional Analysis, Second Edition is an exposition of the theory of topological vector spaces, partially ordered spaces, and the development of the theory of integral operators and their representations on ideal spaces of measurable functions. Although this edition has deviated substantially from the first edition, it has still retained the overall plan, selection, and arrangement of the topics.
The text is primarily devoted to the applications of functional analysis to applied analysis. However, these concepts have been extended and modernized. Some topics of functional analysis connected with applications to mathematical economics and control theory are also included in this edition.
The applications of functional analysis are both wide and far-reaching as these are common language for all areas of mathematics involving the concept of continuity. Those who are in the field of mathematics, mechanics, and theoretical physics will find this book a valuable resource.
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ISBN-13
978-1-4831-3825-1 (9781483138251)
Schweitzer Classification
Preface to the Second EditionFrom the Preface to the First EditionPart I Linear Operators and Functionals Chapter I. Topological and Metric Spaces § 1. General Information on Sets. Ordered Sets § 2. Topological Spaces § 3. Metric Spaces § 4. Completeness and Separability. Sets of the First and Second Categories § 5. Compactness in Metric Spaces § 6. Measure Spaces Chapter II. Vector Spaces § 1. Basic Definitions § 2. Linear Operators and Functional § 3. Convex Sets and Seminorms § 4. The Hahn-Banach Theorem Chapter III. Topological Vector Spaces § 1. General Definitions § 2. Locally Convex Spaces § 3. Duality Chapter IV. Normed Spaces § 1. Basic Definitions and Simplest Properties of Normed Spaces § 2. Auxiliary Inequalities § 3. Normed Spaces of Measurable Functions and Sequences § 4. Other Normed Spaces of Functions § 5. Hilbert Space Chapter V. Linear Operators and Functionals § 1. Spaces of Operators and Dual Spaces § 2. Some Functionals and Operators on Specific Spaces § 3. Linear Functionals and Operators on Hilbert Space § 4. Rings of Operators § 5. The Method of Successive Approximations § 6. The Ring of Operators on a Hilbert Space § 7. The Weak Topology and Reflexive Spaces § 8. Extensions of Linear Operators Chapter VI. The Analytic Representation of Functionals § 1. Integral Representations for Functionals on Spaces of Measurable Functions § 2. The Spaces Lp(T,S,µ) § 3. A General Form for Linear Functionals on the Space C(K) Chapter VII. Sequences of Linear Operators § 1. Basic Theorems § 2. Some Applications to the Theory of Functions Chapter VIII. The Weak Topology in a Banach Space § 1. Weakly Bounded Sets § 2. Eberlein-ShmuTyan Theory § 3. Weak Convergence in Specific Spaces § 4. The Problem of Translocation of Mass and the Normed Space it Generates Chapter IX. Compact and Adjoint Operators § 1. Compact Sets in Normed Spaces § 2. Compact Operators § 3. Adjoint Operators § 4. Compact Self-Adjoint Operators on Hilbert Space § 5. Integral Representations of Self-Adjoint Operators Chapter X. Ordered Normed Spaces § 1. Vector Lattices § 2. Linear Operators and Functionals § 3. Normed Lattices § 4. XB-Spaces § 5. Convex Sets That are Closed with Respect to Convergence in Measure Chapter XI. Integral Operators § 1. Integral Representations of Operators § 2. Operators on Sequence Spaces § 3. Integral Operators on Function Spaces § 4. Sobolev's Embedding TheoremsPart II Functional Equations Chapter XII. The Adjoint Equation § 1. Theorems on Inverse Operators § 2. The Connection between an Equation and its Adjoint Chapter XIII. Functional Equations of the Second Kind § 1. Equations with Compact Kernels § 2. Complex Normed Spaces § 3. The Spectrum § 4. Resolvents § 5. The Fredholm Alternative § 6. Applications to Integral Equations § 7. Invariant Subspaces of Compact Operators. The Approximation Problem Chapter XIV. A General Theory of Approximation Methods § 1. A General Theory for Equations of the Second Kind § 2. Equations Reducible to Equations of the Second Kind § 3. Applications to Infinite Systems of Equations § 4. Applications to Integral Equations § 5. Applications to Ordinary Differential Equations § 6. Applications to Boundary-Value Problems for Equations of Elliptic Type Chapter XV.