Éléphant de savane vs

Loxodonta africana compared with Nitrosotenuis

Key Differences

Éléphant de savane is Vulnerable while is Not Evaluated.

Taxonomic Classification

Rank	Éléphant de savane
Kingdom	Animalia (animal)	Archaea (Archaea)
Phylum	Chordata (Chordates)	Thermoproteota (Thermoproteota)
Class	Mammalia (mammifères)	Nitrososphaeria (Nitrososphaeria)
Order	Proboscidea (Elephants)	Nitrososphaerales (Nitrososphaerales)
Family	Elephantidae (Elephants)	Nitrosopumilaceae
Genus	Loxodonta (African Elephants)	Nitrosotenuis
Species	Loxodonta africana	Nitrosotenuis

Conservation Status

Éléphant de savane

VU — Vulnerable

Population: ~415.0K

Trend: Decreasing ↓

NE — Not Evaluated

Physical Characteristics

Attribute	Éléphant de savane
Diet	Herbivore	—
Average Lifespan	65 years	—
Average Length	6.0 m	—
Average Weight	6.0 t	—

Habitat & Geographic Range

Éléphant de savane

Habitat

Found across multiple habitat types including tropical and subtropical moist broadleaf forests, tropical and subtropical grasslands and savannas, and flooded grasslands and savannas, among 5 distinct biome types within the Afrotropic biogeographic realm. Populations are also found in montane and highland environments at higher elevations.

Range

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

Éléphant de savane

The largest land animal on Earth, African elephants can reach 7,000 kg and inhabit sub-Saharan savannas, forests, and wetlands. Highly intelligent with complex social structures led by matriarchs, they communicate through infrasound, rumbles, and touch. As ecosystem engineers, they shape habitats by uprooting trees, digging waterholes, and dispersing seeds. Vulnerable, with populations declining due to ivory poaching and habitat loss.

Nitrosotenuis is a genus of ammonia-oxidizing archaea in the phylum Thaumarchaeota, comprising species that perform nitrification in diverse environments. Members have been isolated from warm groundwater and other habitats, expanding our understanding of archaeal ammonia oxidizers beyond marine and soil environments. Their chemolithoautotrophic metabolism contributes significantly to the global nitrogen cycle.