SUMMARY
The group \( G \) is proven to be an Abelian group under the condition that for all elements \( a, b, c, d, y \in G \), if \( ayb = cyd \) then \( ab = cd \). By selecting \( c = b \), \( d = a \), and \( y = a^{-1} \), it is demonstrated that \( ab = ba \) holds true for all \( a \) and \( b \). This confirms that \( G \) satisfies the properties of an Abelian group, specifically the commutative property of group multiplication.
PREREQUISITES
- Understanding of group theory concepts, specifically groups and their properties.
- Familiarity with the definition of an Abelian group.
- Knowledge of group operations and inverses.
- Basic mathematical proof techniques, particularly implications and substitutions.
NEXT STEPS
- Study the properties of Abelian groups in detail.
- Explore examples of groups that are not Abelian to understand the differences.
- Learn about the implications of group homomorphisms in relation to Abelian groups.
- Investigate the role of inverses in group theory and their impact on group structure.
USEFUL FOR
Mathematics students, particularly those studying abstract algebra, group theorists, and educators looking to deepen their understanding of group properties and proofs related to Abelian groups.