Linked from

The 17 pages that link to Endosymbiosis, each with the reason it gives.

• Endosymbiotic theoryNarrower topic: The theory proposes that a long-term endosymbiosis became an organelle.

• SymbiosisBroader topic: It identifies the especially intimate arrangement of internal partners.

• OrganelleNarrower topic: The proposed organelle ancestors began as intracellular symbionts.

• Secondary endosymbiosisNarrower topic: Secondary endosymbiosis is a eukaryote-within-eukaryote form of this broader process.

• Primary endosymbiosisNarrower topic: Primary endosymbiosis is a particular evolutionary outcome of an internal partnership.

• EukaryogenesisNarrower topic: Endosymbiosis provides the general process behind the bacterial ancestor of mitochondria.

• StramenopileRelated: A secondary endosymbiotic event explains the origin of many stramenopile plastids.

• Asgard archaeaRelated: The origin of eukaryotes combines archaeal ancestry with bacterial endosymbiosis.

• Obligate intracellular parasiteCompared with: Intracellular residence can be cooperative rather than parasitic.

• ZooxanthellaeRelated: Zooxanthellae inhabit host cells rather than merely living nearby.

• AuchenorrhynchaRelated: Many sap-feeding Auchenorrhyncha rely on internal microbes for nutrients missing from their diet.

• SymbiogenesisBroader topic: It describes the intimate association that can precede evolutionary integration.

• ChlamydiotaRelated: Intracellular residence is central to chlamydial biology, though it is not the same as mutualistic endosymbiosis.

• BikontRelated: The plastids found in many bikonts arose through endosymbiotic events within eukaryote evolution.

• Evolution of fungiCompared with: It distinguishes the origin of eukaryotic cell features from later fungal partnerships.

• Microbiological phenomenaRelated: It connects microbial partnerships to the evolutionary origins of complex cells.

• RiftiaBroader topic: Riftia houses its bacterial partners within specialized internal tissue.