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In [[mathematics]], the '''binary cyclic group''' of the ''n''-gon is the cyclic group of order 2''n'', <math>C_{2n}</math>, thought of as an [[group extension|extension]] of the cyclic group <math>C_n</math> by a [[cyclic group]] of order 2.
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It is the [[binary polyhedral group]] corresponding to the cyclic group.
 
In terms of binary polyhedral groups, the binary cyclic group is the preimage of the cyclic group of rotations (<math>C_n < \operatorname{SO}(3)</math>) under the 2:1 [[covering homomorphism]]
:<math>\operatorname{Spin}(3) \to \operatorname{SO}(3)\,</math>
of the [[special orthogonal group]] by the [[spin group]].
 
As a subgroup of the spin group, the binary cyclic group can be described concretely as a discrete subgroup of the unit [[quaternion]]s, under the isomorphism <math>\operatorname{Spin}(3) \cong \operatorname{Sp}(1)</math> where [[Sp(1)]] is the multiplicative group of unit quaternions. (For a description of this homomorphism see the article on [[quaternions and spatial rotation]]s.)
 
==See also==
*[[binary dihedral group]]
*[[binary tetrahedral group]]
*[[binary octahedral group]]
*[[binary icosahedral group]]
 
[[Category:Binary polyhedral groups|Cyclic]]
 
 
{{Abstract-algebra-stub}}

Latest revision as of 03:22, 2 November 2014

I'm Wolfgang (26) from Kaltenherberg, Switzerland.
I'm learning English literature at a local high school and I'm just about to graduate.
I have a part time job in a university.

Feel free to visit my homepage; home renovator - homeimprovementdaily.com -