Math 6122, Abstract Algebra II
Spring 2006
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Instructor: Matt Baker
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Time and place: MWF 10:05 P.M. - 10:55 P.M, Skiles 108A
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E-mail: mbaker@math.gatech.edu
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Office: Skiles 263
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Office Hours: Monday 2-3, Wednesday 3-4
Course text: "Abstract Algebra" (3rd edition) by David S. Dummit and Richard M. Foote.
If you haven't already done so, please fill out the
Online Course Survey.
Tentative exam schedule:
Eighth homework assignment:
(due Friday, April 20)
Seventh homework assignment:
(due Wednesday, Mar. 29)
- Section 14.6 #29,30,31,32
- Section 14.7 #10,11
Sixth homework assignment:
(due Wednesday, Mar. 15)
- Section 14.5 #2,5,7,10,11,12
Fifth homework assignment:
(due Wednesday, Mar. 8)
- Section 14.2 #13,17,18,31
- Section 14.3 #6
- Section 14.4 #1,2
Fourth homework assignment:
(due Wednesday, Mar. 1)
- Section 14.2 #3,5,11,14,15,29,30
Third homework assignment:
(due Wednesday, Feb. 15)
- Section 14.1 #1,4,5,7,8,9,10
Second homework assignment:
(due Wednesday, Feb. 1)
- Section 12.2 #4,8,9,17
- Section 12.3 #9,17,18,24
First homework assignment:
(due Wednesday, Jan. 25)
- Section 10.1 #8
- Section 10.2 #11,12
- Section 10.3 #2,6,7
- Section 12.1 #6,11,12
Course outline:
This graduate-level course in abstract algebra
is the second in a two-course sequence which also includes Math 6121.
Topics to be covered will include:
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Module theory:
Submodules and quotient modules, homomorphisms, free modules, finitely generated modules over a principal ideal domain,
determinants, rational and Jordan canonical forms via module theory. (Relevant sections: 10.1-10.3, 11.4, 12.1-12.3)
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Field extensions:
Existence and uniqueness of splitting fields and algebraic closures,
inseparable extensions, perfect fields, classical straightedge and compass constructions.
(Relevant sections: 13.2-13.5)
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Galois theory:
Normal extensions, Galois groups, the Galois correspondence,
Galois theory of finite fields, composite extensions, simple extensions, abelian extensions, Galois
groups of polynomials, solvable and radical extensions, insolvability of the quintic, computation of Galois groups,
transcendental extensions.
(Relevant sections: 14.1-14.9)
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Representation theory of finite groups:
Modules over a group ring, Maschke's theorem, Wedderburn's theorem, class functions,
character theory, orthogonality relations, characters of groups of small order, theorems of Burnside and Hall.
(Relevant sections: 18.1-18.3, 19.1-19.2)
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Computational ring theory:
Polynomials in several variables over a field, Grobner bases.
(Relevant sections: 9.6)
Prerequisites:
Math 6121, or permission of instructor.
Exams:
There will be 2 midterm exams during the course of
the semester, plus an in-class final exam at the end of the course.
Homework:
Homework will be assigned on a regular basis.
Grading Policy:
The two midterm exams will each count for 25% of your grade, the final will count 40%, and homework will count 10%.
Collaboration:
On the homework sets, collaboration is both allowed
and encouraged. However, you must write up yourself and understand your own
homework solutions. Any academic dishonesty on the midterm or final exams, if detected,
will result in a score of zero for that exam.
This page was last modified on April 12, 2006 by
Matt Baker.