The following is the publisher's blurb; read also what the critics say.
An exciting introduction to number theory as reflected by the history of Fermat's Last Theorem
This book displays the
unique talents of author Alfred J van der
Poorten in mathematical exposition
for mathematicians. Here, mathematics' most famous problem and the ideas
underlying its recent
solution are presented in a way that appeals to the imagination and leads
the reader through related
areas of mathematics. The first book to focus on Fermat's Last Theorem since
Andrew Wiles presented
his celebrated proof, Notes on Fermat's Last Theorem surveys 350
years of mathematical
history in an amusing collection of
tidbits,
anecdotes, footnotes, exercises,
limericks, references,
illustrations,
and more.
Proving that one can both read
mathematics and read about it [Oops! I think this became "Providing that one can both read
mathematics and read about it", in the blurbs on the book], this thoroughly accessible
treatment
Helps students and
professionals develop a background in number theory and provides
introductions to
the various fields of mathematics that are touched upon
Offers insight into the
exciting world of
mathematical research
Covers a number of areas
appropriate for classroom
use
Assumes only a year or so
of university mathematics
even for the more advanced topics
Explains why Fermat surely
did not have the proof to
his theorem
Examines the efforts of
mathematicians over the
centuries to solve the problem
Shows how the pursuit of
the theorem contributed to
the greater development of mathematics
Around 1637, the French jurist
Pierre de Fermat scribbled in the margin of his copy of Diophantus'
Arithmetica what came to be known as Fermat's Last Theorem, the
most famous question in
mathematical history. Stating that it is impossible to split a cube into two
cubes, or a fourth power
into two fourth powers, or any higher power into two like powers, but not
leaving behind the
marvelous proof he claimed to have had, Fermat prompted three and a half
centuries of mathematical
enquiry which culminated only recently with the proof of Fermat's Last
Theorem by Andrew Wiles.
This book represents the first
serious treatment of Fermat's Last Theorem since Wiles' proof. It is
based on a series of lectures give by the author to celebrate Wiles'
achievement, with each chapter
explaining a separate area of number theory as it pertains to Fermat's Last
Theorem. Together, they
provide a concise history of the problem as well as a brief discussion of
Wiles' proof and its
implications. Requiring little more than one year of university mathematics
and a liking for formulas,
this overview provides many useful tips and cites numerous references for
those who desire more
mathematical detail.
The book's most distinctive
feature is its easy-to-read, humorous style, complete with examples,
anecdotes, and some of the less well known mathematics underlying the newly
discovered proof. In the
author's own words, the book deals with "serious mathematics without being
too serious about it". Alf
van der Poorten demystifies mathematical research, offers an intuitive
approach to the subject ---
loosely suggesting various definitions and unexplained facts --- and invites
the reader to fill in
the missing links in some of the mathematical claims.Table of Contents
Introduction
Biographical Remarks
Lecture I. Quasi-historical introduction
The cases $n=2$ and $n=4$. The Parisian Academy in the 1840 s. Notes: Some details. Descent. Algebraic numbers and integers. 1--10Lecture II. Remarks on unique factorization
A digression. Notes: Continued fractions. Plagiarism 11--18Lecture III. Elementary methods
Sophie Germain, Abel's formulas, Mirimanoff--Wieferich, ... Notes: Fermat's Theorem. Bernoulli numbers. Euler--Maclaurin. Pseudoprimes. Fermat numbers. Mersenne primes. Cranks. 19--30Lecture IV. Kummer's arguments
Proof of the FLT for regular primes. Notes: Some remarks for undergraduates on elementary algebra. Equivalence relations. 31--39Lecture V. Why do we believe Wiles? More quasi-history
Rantings. Work on the FLT this century. Notes: Euler's conjecture. The growing of the ``gap''. 41--50Lecture VI. Diophantus and Fermat
What the study of diophantine equations is really all about. Notes: The chord and tangent method. Examples. 51--63Lecture VII. A child's introduction to elliptic functions
For a precocious child. Notes: Discriminants. 65--73Lecture VIII. Local and global
Some remarks on $p$-adic numbers. Notes: The Riemann $\zeta$-function. Much more on $p$-adic numbers. 75--88Lecture IX. Curves
Particularly, about elliptic curves. Notes: Minimal model. Semisimplicity of the Frey curve. Birational equivalence. 89--101Lecture X. Modular forms
Some formulas and assertions. Notes: More formulas. The discriminant function. 103--111Lecture XI. The Modularity Conjecture
An attempt at an explanation. Notes: What's in a name? 113--122Lecture XII. The functional equation
Poisson summation; $\vartheta$--functions. Notes: Details. Hecke operators. 123--133Lecture XIII. Zeta functions and $L$--series
Introduction to the Birch--Swinnerton-Dyer Conjectures. Notes: Hasse's Theorem. 135--141Lecture XIV. The ABC--Conjecture
Darmon and Granville's Generalized Fermat Equation. Notes: Hawkins primes. The Generalized Fermat Conjecture. 143--150Lecture XV. Heights
Remarks on the Mordell--Weil Theorem. Notes: Lehmer's Question. Elliptic curves of high rank. 151--159Lecture XVI. Class number of imaginary quadratic number fields
The proof of Goldfeld--Gross--Zagier. Notes: Composition of quadratic forms. Tate--Shafarevitch group. Jacobian. Heegner points. 161--176Lecture XVII. Wiles' proof
Not the commutative algebra, of course. Notes: Some details. 177--188Appendices
Appendix A. Remarks on Fermat's Last Theorem
For those who only want to pretend to have looked at the rest of this book. 187--199Appendix B. "The Devil and Simon Flagg", by Arthur Porges
The devil fails where Wiles will succeed. 201--206Appendix C. "Math Riots Prove Fun Incalculable", by Eric Zorn
Is the FLT truly as important as sport? 207--209Index
211--222
Alf van der Poorten
1 Bimbil Place
Killara Australia 2071
Fax: +61 2 9850 8114
Mobile: +61 4 1826 3129
alf@math.mq.edu.au
Home Page Last updated: 24 Sept 1999