- Page 2 and 3: ATLANTIS STUDIES IN MATHEMATICS FOR
- Page 4 and 5: Continued Fractions Second edition
- Page 6 and 7: Preface to the second edition 15 ye
- Page 10 and 11: Contents Preface to the second edit
- Page 12 and 13: Contents xi 4.2.3 Finite limits, pa
- Page 14 and 15: Chapter 1 Introductory examples We
- Page 16 and 17: 1.1.1 Prelude to a definition 3 For
- Page 18 and 19: 1.1.2 Definitions 5 These infinite
- Page 20 and 21: 1.1.2 Definitions 7 so (1.2.7) hold
- Page 22 and 23: 1.1.2 Definitions 9 Hence, the cont
- Page 24 and 25: 1.1.4 Approximating the value 11 1.
- Page 26 and 27: 1.1.4 Approximating the value 13 Ex
- Page 28 and 29: 1.2.1 Regular continued fractions 1
- Page 30 and 31: 1.2.2 Best rational approximation 1
- Page 32 and 33: 1.2.2 Best rational approximation 1
- Page 34 and 35: 1.2.3 Solving linear diophantine eq
- Page 36 and 37: 1.2.5 Musical scales 23 here the re
- Page 38 and 39: 1.3.1 Expansions of functions 25 1.
- Page 40 and 41: 1.3.2 Hypergeometric functions 27 w
- Page 42 and 43: 1.3.2 Hypergeometric functions 29 a
- Page 44 and 45: 1.4.1 From power series to continue
- Page 46 and 47: 1.4.3 Analytic continuation 33 1.4.
- Page 48 and 49: 1.4.4 Padé approximation 35 1. The
- Page 50 and 51: 1.4.4 Padé approximation 37 where
- Page 52 and 53: 1.5.2 Moment problems and divergent
- Page 54 and 55: 1.5.2 Moment problems and divergent
- Page 56 and 57: 1.5.4 Thiele interpolation 43 One c
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1.5.5 Stable polynomials 45 1.5.5 S
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Remarks 47 fraction theory can be f
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Problems 49 (c) the Euler-Minding f
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Problems 51 22. From continued frac
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Chapter 2 Basics The transformation
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2.1.1 Linear fractional transformat
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2.1.1 Linear fractional transformat
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2.1.2 Convergence of continued frac
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2.1.3 Restrained sequences 61 ✬ D
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2.1.4 Tail sequences 63 Proof : σ
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2.1.5 Tail sequences and recurrence
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2.1.5 Tail sequences and recurrence
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2.1.5 Tail sequences and recurrence
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2.1.6 Value sets 71 • K consists
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2.1.7 Element sets 73 V n centered
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2.1.7 Element sets 75 where B(a, r)
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2.2.2 Equivalence transformations 7
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2.2.2 Equivalence transformations 7
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2.2.2 Equivalence transformations 8
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2.2.3 The Bauer-Muir transformation
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2.2.5 Contractions and extensions 8
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2.2.5 Contractions and convergence
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Remarks 89 There is an important le
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Problems 91 Wall. They required tha
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Problems 93 (c) Show that 1 3 ≤ h
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Problems 95 (a) Find its 3-periodic
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Problems 97 28. ♠ The Wall transf
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Chapter 3 Convergence criteria The
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3.1.1 The Stern-Stolz Divergence Th
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3.1.2 The Lane-Wall Characterizatio
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3.1.2 The Lane-Wall Characterizatio
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3.1.3 Truncation error bounds 107 w
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3.1.4 Mapping with linear fractiona
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3.1.4 Mapping with linear fractiona
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3.1.4 Mapping with linear fractiona
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3.1.6 A simple estimate 115 ✬ The
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3.2.1 Positive continued fractions
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3.2.1 Positive continued fractions
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3.2.1 Positive continued fractions
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3.2.2 Alternating continued fractio
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3.2.3 Stieltjes continued fractions
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3.2.3 Stieltjes continued fractions
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3.2.4 The Śleszyński-Pringsheim T
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3.2.4 The Śleszyński-Pringsheim T
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3.2.4 The Śleszyński-Pringsheim T
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3.2.5 Worpitzky’s Theorem 135 We
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3.2.5 Worpitzky’s Theorem 137 The
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3.2.5 Worpitzky’s Theorem 139 whe
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3.2.5 Worpitzky’s Theorem 141 The
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3.2.6 Van Vleck’s Theorem 143 Let
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3.2.6 Van Vleck’s Theorem 145 □
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3.2.6 Van Vleck’s Theorem 147 Let
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3.2.7 The Thron-Lange Theorem 149 a
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3.2.8 The parabola theorems 151 3.2
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3.2.8 The parabola theorems 153 i.e
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3.2.8 The parabola theorems 155 are
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3.2.8 The parabola theorems 157 Now
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3.2.8 The parabola theorems 159 whe
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3.3.1 Simple bounded circular value
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3.3.2 Simple unbounded circular val
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Remarks 165 3.4 Remarks 1. Lemma 3.
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Problems 167 6. Mapping of disks. F
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Problems 169 19. ♠ The Parabola T
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Chapter 4 Periodic and limit period
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4.1.2 Iterations of linear fraction
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4.1.3 Classification of linear frac
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4.1.4 Convergence of periodic conti
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4.1.5 Convergence in the classical
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4.1.6 Approximants on closed form 1
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4.1.7 Connection to the Parabola Th
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4.1.7 Connection to the Parabola Th
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4.2.2 Finite limits, loxodromic cas
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4.2.2 Finite limits, loxodromic cas
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4.2.2 Finite limits, loxodromic cas
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4.2.3 Finite limits, parabolic case
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4.2.3 Finite limits, parabolic case
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4.2.4 Finite limits, elliptic case
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4.2.4 Finite limits, elliptic case
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4.2.5: Infinite limits 201 over to
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4.3.1 Periodic continued fractions
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4.4.2 Fixed circles for τ ∈M 205
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4.4.3 Fixed circles and periodic co
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4.4.3 Fixed circles and periodic co
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Remarks 211 The identity case. Let
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Problems 213 (a) Prove that if a>0
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Problems 215 be polynomials in n fo
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Chapter 5 Numerical computation of
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5.1.2 The fixed point method 219 co
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5.1.2 The fixed point method 221 (T
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5.1.3 Auxiliary continued fractions
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5.1.3 Auxiliary continued fractions
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5.1.4 The improvement machine 227 F
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5.1.4 The improvement machine 229 S
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5.1.4 The improvement machine 231 w
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5.1.5 Asymptotic expansion of f (n)
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5.1.6 The square root modification
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5.1.6 The square root modification
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5.2.1 The ideas 239 Proof : Let wn
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5.2.2 Truncation error bounds 241
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5.2.3 The Oval Sequence Theorem 243
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5.2.4 An algorithm to find value se
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5.2.4 An algorithm to find value se
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5.2.5 Value sets and the fixed poin
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5.2.5 Value sets and the fixed poin
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5.2.5 Value sets and the fixed poin
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5.2.6 Value sets B(w n ,ρ n ) for
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5.2.6 Value sets B(w n ,ρ n ) for
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5.2.7 Error bounds based on idea 3
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Remarks 261 That is, we compute the
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Problems 263 2. Simple element set.
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Appendix A Some continued fraction
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A.2.1 Mathematical constants 267 ([
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A.2.3 The general binomial function
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A.2.4 The natural logarithm 271 Ln(
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A.2.6 Inverse trigonometric and hyp
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A.3.1 Hypergeometric functions 275
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A.3.3 Special examples with 2 F 0 2
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A.3.2 Special examples with 1 F 1 2
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A.3.5 Special examples with 2 F 1 2
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A.3.6 Some simple integrals 283 ([K
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A.3.7 Gamma function expressions by
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A.3.7 Gamma function expressions by
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A.3.7 Gamma function expressions by
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A.4.1 Basic hypergeometric function
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A.4.3 q-expressions by Ramanujan 29
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Bibliography [ABBW85] C. Adiga, B.
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Bibliography 297 [CJPVW7] A. Cuyt,
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Bibliography 299 [JaJW87] L. Jacobs
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Bibliography 301 [LaTh60] L. J. Lan
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Bibliography 303 [Śles89] J. V. Ś
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Bibliography 305 [Worp65] J. Worpit
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Index 307 chain sequence, 90 Chebys