This third volume concludes our introduction to analysis, where in we finish laying the groundwork needed for further study of the subject. As with the first two, this volume contains more material than can treated in a single course. It is therefore important in preparing lectures to choose a suitable subset of its content; the remainder can be treated in seminars or left to independent study. For a quick overview of this content, consult the table of contents and the chapter introductions.
		
	
Foreword
Chapter Ⅸ Elements of measure theory
 1 Measurable spaces
 σ-algebras
 The Borel σ-algebra
 The second countability axiom
 Generating the Borel a-algebra with intervals
 Bases of topological spaces
 The product topology
 Product Borel a-algebras
 Measurability of sections
 2 Measures
 Set functions
 Measure spaces
 Properties of measures
 Null sets
 Outer measures
 The construction of outer measures
 The Lebesgue outer measure
 The Lebesgue-Stieltjes outer measure
 Hausdorff outer measures
 4 Measurable sets
 Motivation
 The a-algebra of/μ*-measurable sets
 Lebesgue measure and Hausdorff measure
 Metric measures
 5 The Lebasgue measure
 The Lebesgue measure space
 The Lebesgue measure is regular
 A characterization of Lebesgue measurability
 Images of Lebesgue measurable sets
 The Lebesgue measure is translation invariant
 A characterization of Lebesgue measure
 The Lebesgue measure is invariant under rigid motions
 The substitution rule for linear maps
 Sets without Lebesgue measure
Chapter Ⅹ Integration theory
 1 Measurable functions
 Simple functions and measurable functions
 A measurability criterion
 Measurable R-valued functions
 The lattice of measurable T-valued functions
 Pointwise limits of mensurable functions
 Radon measures
 2 Integrable fuuctions
 The integral of a simple function
 The L1-seminorm
 The Bochner-Lebesgue integral
 The completeness of L1
 Elementary properties of integrals
 Convergence in L1
 3 Convergence theorems
 Integration of nonnegative T-valued functions
 The monotone convergence theorem
 Fatou's lemma
 Integration of R-valued functions
 Lebesgue's dominated convergence theorem
 Parametrized integrals
 4 Lebesgue spaces
 Essentially bounded functions
 The Holder and Minkowski inequalities
 Lebesgue spaces are complete
 Lp-spaces
 Continuous functions with compact support
 Embeddings
 Continuous linear functionals on Lp
 5 The n-dimensional Bochner-Lebesgue integral
 Lebesgue measure spaces
 The Lebesgue integral of absolutely integrable functions
 A characterization of Riemann integrable functions
 6 Fubiul's theorem
 Maps defined almost everywhere
 Cavalieri's principle
 Applications of Cavalieri's principle
 Tonelli's theorem
 Fubini's theorem for scalar functions
 Fubini's theorem for vector-vained functions
 Minkowski's inequality for integrals
 A characterization of Lp (Rm+n, E)
 A trace theorem
 7 The convolution
 Defining the convolution
 The translation group
 Elementary properties of the convolution
 Approximations to the identity
 Test functions
 Smooth partitions of unity
 Convolutions of E-valued functions
 Distributions
 Linear differential operators
 Weak derivatives
 8 The substitution rule
 Pulling back the Lebesgue measure
 The substitution rule: general case
 Plane polar coordinates
 Polar coordinates in higher dimensions
 Integration of rotationally symmetric functions
 The substitution rule for vector-valued functions
 9 The Fourier transform
 Definition and elementary properties
 The space of rapidly decreasing functions
 The convolution algebra S
 Calculations with the Fourier transform
 The Fourier integral theorem
 Convolutions and the Fourier transform
 Fourier multiplication operators
 Plancherel's theorem
 Symmetric operators
 The Heisenberg uncertainty relation
Chapter Ⅺ Manifolds and differential forms
 1 Submanifolds
 Definitions and elementary properties
 Submersions
 Submanifo]ds with boundary
 Local charts
 Tangents and normals
 The regular value theorem
 One-dimensional manifolds
 Partitions of unity
 2 MultUinear algebra
 Exterior products
 Pull backs
 The volume element
 The Riesz isomorphism
 The Hodge star operator
 Indefinite inner products
 Tensors
 3 The local theory of differential forms
 Definitions and basis representations
 Pull backs
 The exterior derivative
 The Poincare lemma
 Tensors
 4 Vector fields and differential forms
 Vector fields
 Local basis representation
 Differential forms
 Local representations
 Coordinate transformations
 The exterior derivative
 Closed and exact forms
 Contractions
 Orientability
 Tensor fields
 5 Riemannian metrics
 The volume element
 Riemannian manifolds
 The Hodge star
 The codifferential
 6 Vector analysis
 The Riesz isomorphism
 The gradient
 The divergence
 The Laplace-Beltrami operator
 The curl
 The Lie derivative
 The Hodge-Laplace operator
 The vector product and the curl
Chapter Ⅻ Integration on manifolds
 1 Volume measure
 The Lebesgue a-algebra of M
 The defiaition of the volume measure
 Properties
 Integrability
 Calculation of several volumes
 2 Integration of differential forms
 Integrals of m-forms
 Restrictions to submanifolds
 The transformation theorem
 Fubini's theorem
 Calculations of several integrals
 Flows of vector fields
 The transport theorem
 3 Stokes's theorem
 Stokes's theorem for smooth manifolds
 Manifolds with singularities
 Stokes's theorem with singularities
 Planar domains
 Higher-dimensional problems
 Homotopy invariance and applications
 Gauss's law
 Green's formula
 The classical Stokes's theorem
 The star operator and the coderivative
References