Butterworth-Heinemann, 1996. — 200 p. — (Modular mathematics series). — ISBN: 0-340-64596-2, 978-0-340-64596-3.
Building on the basic concepts through a careful discussion of covalence, (while adhering resolutely to sequences where possible), the main part of the book concerns the central topics of continuity, differentiation and integration of real functions. Throughout, the historical context in which the subject was developed is highlighted and particular attention is paid to showing how precision allows us to refine our geometric intuition. The intention is to stimulate the reader to reflect on the underlying concepts and ideas.
Series Preface
Introduction: Why We Study AnalysisWhat the computer cannot see
From counting to complex numbers
From infinitesimals to limits
Convergent Sequences and SeriesConvergence and summation
Algebraic and order properties of limits
Completeness and ConvergenceCompleteness and sequences
Completeness and series
Alternating series
Absolute and conditional convergence of series
Functions Defined by Power SeriesPolynomials – and what Euler did with them!
Multiplying power series: Cauchy products
The radius of convergence of a power series
The elementary transcendental functions
Functions and LimitsHistorical interlude: curves, graphs and functions
The modern concept of function: ordered pairs, domain and range
Combining real functions
Limits of real functions – what Cauchy meant!
Continuous FunctionsLimits that fit
Limits that do not fit: types of discontinuity
General power functions
Continuity of power series
Continuity on IntervalsFrom interval to interval
Applications: fixed points, roots and iteration
Reaching the maximum: the Boundedness Theorem
Uniform continuity – what Cauchy meant?
Differentiable Real FunctionsTangents: prime and ultimate ratios
The derivative as a limit
Mean Values and Taylor SeriesThe Mean Value Theorem
Tests for extreme points
L’Hôpitars Rules and the calculation of limits
Differentiation of power series
Taylor’s Theorem and series expansions
The Riemann IntegralPrimitives and the ‘arbitrary constant’
Partitions and step functions: the Riemann integral
Criteria for integrability
Classes of integrable functions
Properties of the integral
Integration TechniquesThe Fundamental Theorem of the Calculus
Integration by parts and change of variable
Improper integrals
Convergent integrals and convergent series
What Next? Extensions and DevelopmentsGeneralizations of completeness
Approximation of functions
Integrals of real functions: yet more completeness
Appendix. Program Listings
Solutions to Exercises
Index