Order (group theory)/Related Articles: Difference between revisions
Jump to navigation
Jump to search
imported>Daniel Mietchen m (Robot: Creating Related Articles subpage) |
No edit summary |
||
(2 intermediate revisions by 2 users not shown) | |||
Line 1: | Line 1: | ||
{{subpages}} | <noinclude>{{subpages}}</noinclude> | ||
==Parent topics== | ==Parent topics== | ||
Line 23: | Line 23: | ||
{{r|Totient function}} | {{r|Totient function}} | ||
{{Bot-created_related_article_subpage}} | |||
<!-- Remove the section above after copying links to the other sections. --> | <!-- Remove the section above after copying links to the other sections. --> | ||
==Articles related by keyphrases (Bot populated)== | |||
{{r|Bona fide group theory}} | |||
{{r|Abelian group}} | |||
{{r|Essential subgroup}} |
Latest revision as of 12:01, 29 September 2024
- See also changes related to Order (group theory), or pages that link to Order (group theory) or to this page or whose text contains "Order (group theory)".
Parent topics
Subtopics
Bot-suggested topics
Auto-populated based on Special:WhatLinksHere/Order (group theory). Needs checking by a human.
- Field automorphism [r]: An invertible function from a field onto itself which respects the field operations of addition and multiplication. [e]
- Integer [r]: The positive natural numbers (1, 2, 3, …), their negatives (−1, −2, −3, ...) and the number zero. [e]
- Order (disambiguation) [r]: Add brief definition or description
- Order (mathematics) [r]: Add brief definition or description
- Primitive root [r]: A generator of the multiplicative group in modular arithmetic when that group is cyclic. [e]
- Subgroup [r]: A subset of a group which is itself a group with respect to the group operations. [e]
- Symmetric group [r]: The group of all permutations of a set, that is, of all invertible maps from a set to itself. [e]
- Totient function [r]: The number of integers less than or equal to and coprime to a given integer. [e]
- Bona fide group theory [r]: Descriptive theory that attempts to describe the functions of a group rather than predict their actions. [e]
- Abelian group [r]: A group in which the group operation is commutative. [e]
- Essential subgroup [r]: A subgroup of a group which has non-trivial intersection with every other non-trivial subgroup. [e]