Cofinite topology/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 18: | Line 18: | ||
{{r|Sober space}} | {{r|Sober space}} | ||
{{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|Noetherian space}} | |||
{{r|Finite and infinite}} | |||
{{r|Discrete space}} | |||
{{r|Discrete metric}} | |||
Latest revision as of 11:00, 30 July 2024
- See also changes related to Cofinite topology, or pages that link to Cofinite topology or to this page or whose text contains "Cofinite topology".
Parent topics
Subtopics
Bot-suggested topics
Auto-populated based on Special:WhatLinksHere/Cofinite topology. Needs checking by a human.
- Compact space [r]: A toplogical space for which every covering with open sets has a finite subcovering. [e]
- Separation axioms [r]: Axioms for a topological space which specify how well separated points and closed sets are by open sets. [e]
- Sober space [r]: A topological space in which every irreducible closed set has a unique generic point. [e]
- Noetherian space [r]: A topological space in which closed subsets satisfy the descending chain condition. [e]
- Finite and infinite [r]: The distinction between bounded and unbounded in size (number of elements, length, area, etc.) [e]
- Discrete space [r]: A topological space with the discrete topology, in which every subset is open (and also closed). [e]
- Discrete metric [r]: The metric on a space which assigns distance one to any distinct points, inducing the discrete topology. [e]