Easy As Pi? An Introduction to Higher Mathematics

Ivanov, Oleg A. ; R. G. Burns (translator)

ISBN 10: 0387985212 / ISBN 13: 9780387985213

Editore: Springer, New York, Berlin & Heidelberg, 1998

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With diagrams. Light shelfwear. ; Octavo; xviii, 187 pages. Codice articolo LCH48035

Dati bibliografici

Titolo: Easy As Pi? An Introduction to Higher ...

Casa editrice: Springer, New York, Berlin & Heidelberg

Data di pubblicazione: 1998

Legatura: Original decorated wrappers

Condizione: Fine

Condizione sovraccoperta: No Dust Jacket

Edizione: First Edition; First Impression.

Descrizione articolo

Riassunto:

This book aims at introducing the reader with some high school mathematics, to both the higher and the more fundamental developments of the basic themes of elementary mathematics. Most chapters begin with a series of elementary problems, behind whose diverting formulation more advanced mathematical ideas lie hidden. These are then made explicit and further developemnts of them explored, thereby deepending and broadening the reader's understanding of mathematics -- enabling him or her to see mathematics as a hologram. The book arose from a course for potential high school teachers of mathematics taught for several years at St. Petersburg University, and nearly every chapter ends with an interesting commentary on the relevance of its subject matter to the actual classroom setting. However, it can be recommended to a much wider readership; even the professional mathematician will derive much pleasureable instruction from reading it.

Contenuti:

1 Induction.- 1.1 Principle or method?.- 1.2 The set of integers.- 1.3 Peano’s axioms.- 1.4 Addition, order, and multiplication.- 1.5 The method of mathematical induction.- 2 Combinatorics.- 2.1 Elementary problems.- 2.2 Combinations and recurrence relations.- 2.3 Recurrence relations and power series.- 2.4 Generating functions.- 2.5 The numbers ?e, and n-factorial.- 3 Geometric Transformations.- 3.1 Translations, rotations, and other symmetries, in the context of problem-solving.- 3.2 Problems involving composition of transformations.- 3.3 The group of Euclidean motions of the plane.- 3.4 Ornaments.- 3.5 Mosaics and discrete groups of motions.- 4 Inequalities.- 4.1 The means of a pair of numbers.- 4.2 Cauchy’s inequality and the a.m.-g.m. inequality.- 4.3 Classical inequalities and geometry.- 4.4 Integral variants of the classical inequalities.- 4.5 Wirtinger’s inequality and the isoperimetric problem.- 5 Sets, Equations, and Polynomials.- 5.1 Figures and their equations.- 5.2 Pythagorean triples and Fermat’s last theorem.- 5.3 Numbers and polynomials.- 5.4 Symmetric polynomials.- 5.5 Discriminants and resultants.- 5.6 The method of elimination and Bézout’s theorem.- 5.7 The factor theorem and finite fields.- 6 Graphs.- 6.1 Graphical reformulations.- 6.2 Graphs and parity.- 6.3 Trees.- 6.4 Euler’s formula and the Euler characteristic.- 6.5 The Jordan curve theorem.- 6.6 Pairings.- 6.7 Eulerian graphs and a little more.- 7 The Pigeonhole Principle.- 7.1 Pigeonholes and pigeons.- 7.2 Poincaré’s recurrence theorem.- 7.3 Liouville’s theorem.- 7.4 Minkowski’s lemma.- 7.5 Sums of two squares.- 7.6 Sums of four squares. Euler’s identity.- 8 The Quaternions.- 8.1 The skew-field of quaternions, and Euler’s identity.- 8.2 Division algebras. Frobenius’s theorem.- 8.3 Matrix algebras.- 8.4 Quaternions and rotations.- 9 The Derivative.- 9.1 Geometry and mechanics.- 9.2 Functional equations.- 9.3 The motion of a point—particle.- 9.4 On the number e.- 9.5 Contracting maps.- 9.6 Linearization.- 9.7 The Morse-Sard theorem.- 9.8 The law of conservation of energy.- 9.9 Small oscillations.- 10 The Foundations of Analysis.- 10.1 The rational and real number fields.- 10.2 Nonstandard number lines.- 10.3 “Nonstandard” statements and proofs.- 10.4 The reals numbers via Dedekind cuts.- 10.5 Construction of the reals via Cauchy sequences.- 10.6 Construction of a model of a nonstandard real line.- 10.7 Norms on the rationals.- References.