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Abstract Algebra I –

mth400

(3 credits)

This is the first course of a two-part course sequence presenting students with the applications of abstract algebraic theories. Students will investigate Group theory; including permutation groups, Abelian groups, finite groups, and homomorphism theorems.
This undergraduate-level course is 5 weeks. To enroll, speak with an Enrollment Advisor.
  • Permutation Groups

    • Apply Sylow’s theorem to calculate Sylow subgroups.
    • Use Burnside’s Counting theorem to determine the number of orbits for a group acting on a set.
    • Determine an action of a finite group on a set.
  • Homomorphisms

    • Verify relationships between different groups using the Fundamental Homomorphism theorem.
    • Identify normal subgroups for a given group and quotient groups.
    • Find a kernel of a homomorphism.
    • Determine if a given mapping is a homomorphism of groups.
  • Introduction to Groups

    • Determine if a given set, with respect to a given operation, forms a group.
    • Determine the group of symmetries of a given figure.
    • Decide if a given subset is a subgroup.
    • Determine properties of permutations.
  • Groups: Lagrange’s Theorem and Isomorphism

    • Use Cayley’s theorem to find permutations associated with an element of a group.
    • Determine if given groups are isomorphic.
    • Find all subgroups of a given group using Lagrange’s theorem and its corollaries.
    • Determine the cosets of a given group.
    • Identify generators and direct products of groups.
    • Determine subgroups for a given group and its elements’ order.
  • Equivalence, Congruence and Divisibility

    • Compute the greatest common divisor and least common multiple of pairs of integers.
    • Use the Euclidean Algorithm to prove statements involving greatest common divisors.
    • Apply group properties to Zn.
    • Perform the division algorithm.
    • Identify congruence classes modulo n.
    • Find representatives of equivalence classes.
    • Verify properties of an equivalence relation.

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