Book:K.G. Binmore/Mathematical Analysis: A Straightforward Approach
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K.G. Binmore: Mathematical Analysis: A Straightforward Approach
Published $\text {1977}$, Cambridge University Press
- ISBN 0 521 29167 4
Subject Matter
Contents
- Preface
- 1 Real numbers
- 1.1 Set notation
- 1.2 The set of real numbers
- 1.3 Arithmetic
- 1.4 Inequalities
- 1.9 Roots
- 1.10 Quadratic equations
- 1.13 Irrational numbers
- 1.14 Modulus
- 2 Continuum Property
- 2.1 Achilles and the tortoise
- 2.2 The continuum property
- 2.6 Supremum and infimum
- 2.7 Maximum and minimum
- 2.9 Intervals
- 2.11 Manipulations with $\sup$ and $\inf$
- 3 Natural numbers
- 3.1 Introduction
- 3.2 Archimedean property
- 3.7 Principle of Induction
- 4 Convergent sequences
- 4.1 The bulldozers and the bee
- 4.2 Sequences
- 4.4 Definition of convergence
- 4.7 Criteria for convergence
- 4.15 Monotone sequences
- 4.21 Some simple properties of convergent sequences
- 4.26 Divergent sequences
- 5 Subsequences
- 5.1 Subsequences
- 5.8 Bolzano-Weierstrass theorem
- 5.12 Lim sup and lim inf
- 5.16 Cauchy sequences
- 6 Series
- 6.1 Definitions
- 6.4 Series of positive terms
- 6.7 Elementary properties of series
- 6.12 Series and Cauchy sequences
- 6.20 Absolute and conditional convergence
- 6.23 Manipulations with series
- 7 Functions
- 7.1 Notation
- 7.6 Polynomial and rational functions
- 7.9 Combining functions
- 7.11 Inverse functions
- 7.13 Bounded functions
- 8 Limits of functions
- 8.1 Limits from the left
- 8.2 Limits from the right
- 8.3 $\map f x \to l$ as $x \to \xi$
- 8.6 Continuity at a point
- 8.8 Connexion with convergent sequences
- 8.11 Properties of limits
- 8.16 Limits of composite functions
- 8.18 Divergence
- 9 Continuity
- 9.1 Continuity on an interval
- 9.7 Continuity property
- 10 Differentiation
- 10.1 Derivatives
- 10.2 Higher derivatives
- 10.4 More notation
- 10.5 Properties of differentiable functions
- 10.12 Composite functions
- 11 Mean value theorems
- 11.1 Local maxima and minima
- 11.3 Stationary points
- 11.5 Mean value theorem
- 11.9 Taylor's theorem
- 12 Monotone functions
- 12.1 Definitions
- 12.3 Limits of monotone functions
- 12.6 Differentiable monotone functions
- 12.9 Inverse functions
- 12.11 Roots
- 12.13 Convex functions
- 13 Integration
- 13.1 Area
- 13.2 The integral
- 13.3 Some properties of the integral
- 13.9 Differentiation and integration
- 13.16 Riemann integral
- 13.19 More properties of the integral
- 13.27 Improper integrals
- 13.31 Euler-Maclaurin summation formula
- 14 Exponentiation and logarithm
- 14.1 Logarithm
- 14.4 Exponential
- 14.6 Powers
- 15 Power series
- 15.1 Interval of convergence
- 15.4 Taylor series
- 15.7 Continuity and differentiation
- 17 The gamma function
- 17.1 Stirling's formula
- 17.3 The gamma function
- 17.5 Properties of the gamma function
- 18 Appendix
- This contains the proofs of 'propositions' left unproved in the main body of the text.
- Solutions to exercises
- Suggested further reading
- Notation
- Index
Rating
Speed | 2 - Trundle |
Clarity | 4 - Straightforward |
Density | 3 - Meaty |
Level | 2 - Hilly |
Scope | 3 - Focused |
Solutions | 5 - Complete |
Cited by
- 1983: K.G. Binmore: Calculus
- 1985: H.A. Priestley: Introduction to Complex Analysis
Errata
Limit of Root of Positive Real Number
- Chapter $\S 5$: Subsequences
- $\S 5.4$: Example
- In example $4.4$ we showed that, if $x > 0$, then $x^{1 / n} \to 1$ as $n \to \infty$. We prove this again by a different method. As in example $4.4$ we need only consider the case $x \ge 1$.
Convergent Real Sequence: Exercise: $x_{n + 1} = \dfrac k {1 + x_n}$
- Chapter $\S 5$: Subsequences
- $\S 5.7$: Solution to Exercise $(3)$
- It is easily shown by induction that $k > x_n > 0$ ($n = 1, 2, \ldots$).
Source work progress
- 1977: K.G. Binmore: Mathematical Analysis: A Straightforward Approach: Basically complete, apart from exercises: second runthrough in progress
- 1977: K.G. Binmore: Mathematical Analysis: A Straightforward Approach ... (previous) ... (next): $\S 5$: Subsequences: Exercise $\S 5.21 \ (2)$