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Praise for the First Edition ". . . an enchanting book for those people in computer science or mathematics who are fascinated by the concept of infinity."—Computing Reviews". . . a very well written introduction to set theory . . . easy to read and well suited for self-study . . . highly recommended."—ChoiceThe concept of infinity has fascinated and confused mankind for centuries with theories and ideas that cause even seasoned mathematicians to wonder. The Mathematics of Infinity: A Guide to Great Ideas, Second Edition uniquely explores how we can manipulate these ideas when our common sense rebels at the conclusions we are drawing.Continuing to draw from his extensive work on the subject, the author provides a user-friendly presentation that avoids unnecessary, in-depth mathematical rigor. This Second Edition provides important coverage of logic and sets, elements and predicates, cardinals as ordinals, and mathematical physics. Classic arguments and illustrative examples are provided throughout the book and are accompanied by a gradual progression of sophisticated notions designed to stun readers' intuitive view of the world.With an accessible and balanced treatment of both concepts and theory, the book focuses on the following topics: Logic, sets, and functions Prime numbers Counting infinite sets Well ordered sets Infinite cardinals Logic and meta-mathematics Inductions and numbers Presenting an intriguing account of the notions of infinity, The Mathematics of Infinity: A Guide to Great Ideas, Second Edition is an insightful supplement for mathematics courses on set theory at the undergraduate level. The book also serves as a fascinating reference for mathematically inclined individuals who are interested in learning about the world of counterintuitive mathematics.
THEODORE G. FATICONI, PhD, is a Professor in the Department of Mathematics at Fordham University. His professional experience includes forty research papers in peer-reviewed journals and forty lectures on his research to his colleagues.
1. Logic 1 1.1 Axiomatic Method 21.2 Tabular Logic 31.3 Tautology 91.4 Logical Strategies 151.5 Implications From Implications 171.6 Universal Quantifiers 201.7 Fun With Language and Logic 222. Sets 292.1 Elements and Predicates 302.2 Cartesian Products 452.3 Power Sets 482.4 Something From Nothing 502.5 Indexed Families of Sets 563. Functions 653.1 Functional Preliminaries 663.2 Images and Preimages 813.3 One-to-One and Onto Functions 903.4 Bijections 953.5 Inverse Functions 974. Counting Infinite Sets 1054.1 Finite Sets 1054.2 Hilbert’s Infinite Hotel 1134.3 Equivalent Sets and Cardinality 1285. Infinite Cardinals 1355.1 Countable Sets 1365.2 Uncountable Sets 1495.3 Two Infinites 1595.4 Power Sets 1665.5 The Arithmetic of Cardinals 1806. Well Ordered Sets 1996.1 Successors of Elements 1996.2 The Arithmetic of Ordinals 2106.3 Cardinals as Ordinals 2226.4 Magnitude versus Cardinality 2347. Inductions and Numbers 2437.1 Mathematical Induction 2437.2 Sums of Powers of Integers 2607.3 Transfinite Induction 2647.4 Mathematical Recursion 2747.5 Number Theory 2797.6 The Fundamental Theorem of Arithmetic 2837.7 Perfect Numbers 2858. Prime Numbers 2898.1 Prime Number Generators 2898.2 The Prime Number Theorem 2928.3 Products of Geometric Series 2968.4 The Riemann Zeta Function 3028.5 Real Numbers 3079. Logic and Meta-Mathematics 3139.1 The Collection of All Sets 3139.2 Other Than True or False 3179.3 Logical Implications of A Theory of Everything 326Bibliography 283Index 284