Abstract

In this paper we study the isomorphisms of generalized Hamilton quaternions $\Big(\frac{a,b}{R}\Big)$ where $R$ is a finite unital commutative ring of odd characteristic and $a,b \in R$. We obtain the number of non-isomorphic classes of generalized Hamilton quaternions in the case where $R$ is a principal ideal ring. This extends the case $R=\mathbb{Z}/n\mathbb{Z}$
 where $n$ is an odd integer.

Highlights

  • The origin of quaternions dates back to 1843, when William Rowan Hamilton considered a 4-dimensional vector space over R with basis {1, i, j, k} and defined an associative product given by the classical rules i2 = j2 = −1 and ij = −ji = k.This construction admits a very natural extension like the following

  • In this paper we study the isomorphism classes of generalized Hamilton quaternions a,b R

  • We can provide the required extension of Lemma 2.1 to finite local rings that will be used in the sequel

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Summary

Introduction

The origin of quaternions dates back to 1843, when William Rowan Hamilton considered a 4-dimensional vector space over R with basis {1, i, j, k} and defined an associative product given by the classical rules i2 = j2 = −1 and ij = −ji = k. This construction admits a very natural extension like the following. We obtain an associative unital ring that will be denoted by a,b R and that we call ring of generalized Hamilton quaternions over R If both a and b are units and the underlying ring R is a field F of characteristic different from 2, the structure of the corresponding quaternion algebra is well-known.

Ring-theoretical preliminaries
Basic results about generalized Hamilton quaternions
Isomorphisms of generalized Hamilton quaternions over finite local rings
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