First Course in Abstract Algebra, A, 3rd edition
Published by Pearson (September 28, 2005) © 2006
- Joseph J. Rotman
- Hardcover, paperback or looseleaf edition
- Affordable rental option for select titles
• Comprehensive coverage of abstract algebra – Includes discussions of the fundamental theorem of Galois theory; Jordan-Holder theorem; unitriangular groups; solvable groups; construction of free groups; von Dyck's theorem, and presentations of groups by generators and relations.
• Significant applications for both group and commutative ring theories, especially with Gr ö bner bases – Helps students see the immediate value of abstract algebra.
• Flexible presentation – May be used to present both ring and group theory in one semester, or for two-semester course in abstract algebra.
• Number theory – Presents concepts such as induction, factorization into primes, binomial coefficients and DeMoivre's Theorem, so students can learn to write proofs in a familiar context.
• Section on Euclidean rings – Demonstrates that the quotient and remainder from the division algorithm in the Gaussian integers may not be unique. Also, Fermat's Two-Squares theorem is proved.
• Sylow theorems – Discusses the existence of Sylow subgroups as well as conjugacy and the congruence condition on their number.
• Fundamental theorem of finite abelian groups – Covers the basis theorem as well as the uniqueness to isomorphism
• Extensive references and consistent numbering system for lemmas, theorems, propositions, corollaries, and examples – Clearly organized notations, hints, and appendices simplify student reference.
• Rewritten for smoother exposition – Makes challenging material more accessible to students.
• Updated exercises – Features challenging new problems, with redesigned page and back references for easier access.
• Extensively revised Ch. 2 (groups) and Ch. 3 (commutative rings ) – Makes chapters independent of one another, giving instructors increased flexibility in course design.
• New coverage of codes – Includes 28-page introduction to codes, including a proof that Reed-Solomon codes can be decoded.
• New section on canonical forms (Rational, Jordan, Smith) for matrices – Focuses on the definition and basic properties of exponentiation of complex matrices, and why such forms are valuable.
• New classification of frieze groups – Discusses why viewing the plane as complex numbers allows one to describe all isometries with very simple formulas.
• Expanded discussion of orthogonal Latin squares – Includes coverage of magic squares.
• Special Notation section – References common symbols and the page on which they are introduced.
Induction
Binomial Coefficients
Greatest Common Divisors
The Fundamental Theorem of Arithmetic
Congruences
Dates and Days
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Chapter 2: Groups ISome Set Theory
Permutations
Groups
Subgroups and Lagrange's Theorem
Homomorphisms
Quotient Groups
Group Actions
Counting with Groups
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Chapter 3: Commutative Rings IFirst Properties
Fields
Polynomials
Homomorphisms
Greatest Common Divisors
Unique Factorization
Irreducibility
Quotient Rings and Finite Fields
Officers, Magic, Fertilizer, and Horizons
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Chapter 4: Linear AlgebraVector Spaces
Euclidean Constructions
Linear Transformations
Determinants
Codes
Canonical Forms
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Chapter 5: FieldsClassical Formulas
Insolvability of the General Quintic
Epilog
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Chapter 6: Groups IIFinite Abelian Groups
The Sylow Theorems
Ornamental Symmetry
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Chapter 7: Commutative Rings IIIPrime Ideals and Maximal Ideals
Unique Factorization
Noetherian Rings
Varieties
Grobner Bases
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Hints for Selected Exercises
Bibliography
Index
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