Anderson's Salamander vs

Ambystoma andersoni compared with Aphanocapsa sideroderma

Key Differences

• Anderson's Salamander is Critically Endangered while is Not Evaluated.

Taxonomic Classification

Rank	Anderson's Salamander
Kingdom	Animalia (حيوانات)	Bacteria (Bacteria)
Phylum	Chordata (حبليات)	Cyanobacteria (بكتيريا زرقاء)
Class	Amphibia (برمائيات)	Cyanobacteriia
Order	Caudata (سلمندر)	Cyanobacteriales
Family	Ambystomatidae	Microcystaceae
Genus	Ambystoma	Aphanocapsa
Species	Ambystoma andersoni	Aphanocapsa sideroderma

Conservation Status

Anderson's Salamander

CR — Critically Endangered

NE — Not Evaluated

Physical Characteristics

Attribute	Anderson's Salamander
Diet	—	—
Average Lifespan	—	—
Average Length	—	—
Average Weight	—	—

Habitat & Geographic Range

Anderson's Salamander

Habitat

Found across multiple habitat types including tropical and subtropical coniferous forests, tropical and subtropical grasslands and savannas, and Mediterranean forests and woodlands, among 6 distinct biome types spanning the Nearctic and Neotropic realms. Populations are also found in montane and highland environments at higher elevations.

Range

Found in Mexico. Currently classified as Critically Endangered on the IUCN Red List, this species faces significant conservation challenges across its range.

Habitat

Native to Europe, inhabiting ecosystems characteristic of the region.

Range

Distributed across Norway and Sweden.

Anderson's Salamander

The Anderson's Salamander (Ambystoma andersoni) is a species in the genus Ambystoma. It is currently classified as Critically Endangered on the IUCN Red List. Found across multiple habitat types including tropical and subtropical coniferous forests, tropical and subtropical grasslands and savannas, and Mediterranean forests and woodlands, among 6 distinct biome types spanning the Nearctic and Neo.

Aphanocapsa sideroderma is a unicellular cyanobacterium forming colonial aggregates in gelatinous sheaths with iron-encrusted outer layers. It inhabits iron-rich freshwater environments including springs, streams, and wetlands. This photosynthetic bacterium produces energy through oxygenic photosynthesis and contributes to biofilm formation on iron-rich substrates.