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With a wealth of examples as well as abundant applications to Algebra, this is a must-read work: a clearly written, easy-to-follow guide to Homological Algebra. The author provides a treatment of Homological Algebra which approaches the subject in terms of its origins in algebraic topology. In this brand new edition the text has been fully updated and revised throughout and new material on sheaves and abelian categories has been added. Applications include the following: * to rings -- Lazard's theorem that flat modules are direct limits of free modules, Hilbert's Syzygy Theorem, Quillen-Suslin's solution of Serre's problem about projectives over polynomial rings, Serre-Auslander-Buchsbaum characterization of regular local rings (and a sketch of unique factorization); * to groups -- Schur-Zassenhaus, Gaschutz's theorem on outer automorphisms of finite p-groups, Schur multiplier, cotorsion groups; * to sheaves -- sheaf cohomology, Cech cohomology, discussion of Riemann-Roch Theorem over compact Riemann surfaces. Learning Homological Algebra is a two-stage affair. Firstly, one must learn the language of Ext and Tor, and what this describes. Secondly, one must be able to compute these things using a separate language: that of spectral sequences. The basic properties of spectral sequences are developed using exact couples. All is done in the context of bicomplexes, for almost all applications of spectral sequences involve indices. Applications include Grothendieck spectral sequences, change of rings, Lyndon-Hochschild-Serre sequence, and theorems of Leray and Cartan computing sheaf cohomology. Joseph Rotman is Professor Emeritus of Mathematics at the University of Illinois at Urbana-Champaign. He is the author of numerous successful textbooks, including Advanced Modern Algebra (Prentice-Hall 2002), Galois Theory, 2nd Edition (Springer 1998) A First Course in Abstract Algebra (Prentice-Hall 1996), Introduction to the Theory of Groups, 4th Edition (Springer 1995), and Introduction to Algebraic Topology (Springer 1988).
Ordered algebraic structures --- Category theory. Homological algebra --- Algebra, Homological --- Algebra, Homological. --- 512.66 --- Homological algebra --- Algebra, Abstract --- Homology theory --- 512.66 Homological algebra
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Introduction to Homological Algebra, 85
Ordered algebraic structures --- Algebra, Homological --- #WWIS:d.d. Prof. L. Bouckaert/ALTO --- 512.66 --- 512.66 Homological algebra --- Homological algebra --- Algebra, Abstract --- Homology theory --- Algebra, Homological. --- Algebra, Abstract. --- Algèbre homologique. --- Groupes, Théorie des. --- Group theory --- Abstract algebra --- Algebra, Universal --- Logic, Symbolic and mathematical --- Set theory --- Álgebra Avanzada (71042203) |x Bibliografía recomendada --- Álgebra Avanzada (71042203) --- Bibliografía recomendada --- Algèbres commutatives --- Algèbre homologique --- Algèbres commutatives --- Groupes, Théorie des.
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Algebra. --- Algebra --- Mathematics --- Mathematical analysis
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With a wealth of examples as well as abundant applications to Algebra, this is a must-read work: a clearly written, easy-to-follow guide to Homological Algebra. The author provides a treatment of Homological Algebra which approaches the subject in terms of its origins in algebraic topology. In this brand new edition the text has been fully updated and revised throughout and new material on sheaves and abelian categories has been added. Applications include the following: * to rings -- Lazard's theorem that flat modules are direct limits of free modules, Hilbert's Syzygy Theorem, Quillen-Suslin's solution of Serre's problem about projectives over polynomial rings, Serre-Auslander-Buchsbaum characterization of regular local rings (and a sketch of unique factorization); * to groups -- Schur-Zassenhaus, Gaschutz's theorem on outer automorphisms of finite p-groups, Schur multiplier, cotorsion groups; * to sheaves -- sheaf cohomology, Cech cohomology, discussion of Riemann-Roch Theorem over compact Riemann surfaces. Learning Homological Algebra is a two-stage affair. Firstly, one must learn the language of Ext and Tor, and what this describes. Secondly, one must be able to compute these things using a separate language: that of spectral sequences. The basic properties of spectral sequences are developed using exact couples. All is done in the context of bicomplexes, for almost all applications of spectral sequences involve indices. Applications include Grothendieck spectral sequences, change of rings, Lyndon-Hochschild-Serre sequence, and theorems of Leray and Cartan computing sheaf cohomology. Joseph Rotman is Professor Emeritus of Mathematics at the University of Illinois at Urbana-Champaign. He is the author of numerous successful textbooks, including Advanced Modern Algebra (Prentice-Hall 2002), Galois Theory, 2nd Edition (Springer 1998) A First Course in Abstract Algebra (Prentice-Hall 1996), Introduction to the Theory of Groups, 4th Edition (Springer 1995), and Introduction to Algebraic Topology (Springer 1988).
Algebra, Homological. --- Algebra, Homological --- Mathematics --- Physical Sciences & Mathematics --- Algebra --- Categories (Mathematics) --- Category theory (Mathematics) --- Homological algebra --- Mathematics. --- Category theory (Mathematics). --- Homological algebra. --- Category Theory, Homological Algebra. --- Algebra, Abstract --- Homology theory --- Algebra, Universal --- Group theory --- Logic, Symbolic and mathematical --- Topology --- Functor theory --- Math --- Science --- Algebra. --- Mathematical analysis --- Actualización Científica en Matemáticas (71043210) --- Bibliografía recomendada
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The first edition aimed to give a geodesic path to the Fundamental Theorem of Galois Theory, and I still think its brevity is valuable. Alas, the book is now a bit longer, but I feel that the changes are worthwhile. I began by rewriting almost all the text, trying to make proofs clearer, and often giving more details than before. Since many students find the road to the Fundamental Theorem an intricate one, the book now begins with a short section on symmetry groups of polygons in the plane; an analogy of polygons and their symmetry groups with polynomials and their Galois groups can serve as a guide by helping readers organize the various definitions and constructions. The exposition has been reorganized so that the discussion of solvability by radicals now appears later; this makes the proof of the Abel-Ruffini theo rem easier to digest. I have also included several theorems not in the first edition. For example, the Casus Irreducibilis is now proved, in keeping with a historical interest lurking in these pages.
Galois theory --- Galois, Théorie de --- Polynômes --- Nombres algébriques, Théorie des --- Extensions de corps (mathématiques) --- Field extensions (Mathematics) --- Polynomials --- Algebraic number theory --- Galois, Théorie de. --- Polynômes. --- Nombres algébriques, Théorie des. --- Group theory. --- Group Theory and Generalizations. --- Groups, Theory of --- Substitutions (Mathematics) --- Algebra --- Galois, Théorie de. --- Polynômes. --- Nombres algébriques, Théorie des. --- Extensions de corps (mathématiques)
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Group theory --- 512.54 --- Groups. Group theory --- 512.54 Groups. Group theory --- Groupes, Théories des --- Groupes, Théorie des --- Groups, Theory of --- Substitutions (Mathematics) --- Algebra --- Groupes, Théorie des.
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