Representation the All Order of Every Element of 60 Order of Group for Multiplication Composition

This paper aims at treating a study on the order of every element of 60 orders of group for multiplication composition. But the composition in G is associative; the multiplication composition is very significant in the order of elements of a group. We develop the order of a group, higher order of groups in different types of order and the order of elements of a group in real numbers. Let G be a group and let a n ∈ G be of infinite order n. In addition, notation o(a m) = λ m , where λ = l. c.m of m and n. If a ∈ G is of order n, then there exists an integer m for which a m = e if m is a multiple of n, in general we use this. Then we develop orders of elements of a cyclic group and every element of higher order of a group. After that we find out the order of every element of a group for the higher orders of the group for being binary operation.

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Publication Details

Published
2025-04-19
DOI
https://doi.org/10.38124/ijisrt/25apr199
Primary Topic
Finite Group Theory Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Representation the All Order of Every Element of 60 Order of Group for Multiplication Composition

Md. Amzad Hossain, Md. Matiur Rahman, Md. Abdul Mannan
Finite Group Theory Research
article

Representation the All Order of Every Element of 60 Order of Group for Multiplication Composition

Md. Amzad Hossain, Md. Matiur Rahman, Md. Abdul Mannan
article en

Abstract

This paper aims at treating a study on the order of every element of 60 orders of group for multiplication composition. But the composition in G is associative; the multiplication composition is very significant in the order of elements of a group. We develop the order of a group, higher order of groups in different types of order and the order of elements of a group in real numbers. Let G be a group and let a n ∈ G be of infinite order n. In addition, notation o(a m) = λ m , where λ = l. c.m of m and n. If a ∈ G is of order n, then there exists an integer m for which a m = e if m is a multiple of n, in general we use this. Then we develop orders of elements of a cyclic group and every element of higher order of a group. After that we find out the order of every element of a group for the higher orders of the group for being binary operation.

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Finite Group Theory Research
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