Could you please elaborate on which group of order you are referring to when asking if it is abelian? In mathematics, a group is considered abelian if its operation is commutative, meaning that for any two elements a and b in the group, the result of the operation a applied to b is the same as the result of b applied to a. This property is not inherent to all groups, so it's important to specify the group in question to determine if it is indeed abelian.
7 answers
Lorenzo
Thu Aug 15 2024
The distinction between these two isomorphism classes stems from the group's internal structure. A group isomorphic to Zp2\mathbb{Z}_{p^2}Zp2 possesses a single generator, akin to a single wheel rotating continuously. In contrast, a group isomorphic to Zp×Zp\mathbb{Z}_p \times \mathbb{Z}_pZp×Zp can be visualized as two independent wheels rotating simultaneously, each with its own generator.
ZenMindfulness
Thu Aug 15 2024
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Tommaso
Thu Aug 15 2024
In the realm of abstract algebra, groups with specific orders exhibit intriguing properties. A group of order ppp, where p is a prime number, is inherently abelian, meaning its elements commute under the group operation. This property allows for a straightforward isomorphism to the cyclic group Zp\mathbb{Z}_pZp, signifying its cyclic nature.
GyeongjuGloryDaysFestival
Thu Aug 15 2024
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SamuraiHonor
Thu Aug 15 2024
Moving on to groups of order p2p^2p2, where p is again a prime, these too are abelian, indicating a high degree of symmetry within their structure. However, their isomorphism possibilities diverge slightly from those of their prime-order counterparts.