Cloud Forest Akodont vs Large False Serotine

Akodon torques compared with Hesperoptenus tomesi

Key Differences

• Cloud Forest Akodont is Least Concern while Large False Serotine is Vulnerable.

Taxonomic Classification

Rank	Cloud Forest Akodont	Large False Serotine
Kingdom same	Animalia (Animals)	Animalia (Animals)
Phylum same	Chordata (cordados)	Chordata (cordados)
Class same	Mammalia (mamíferos)	Mammalia (mamíferos)
Order	Rodentia (Roedores)	Chiroptera (morcego)
Family	Cricetidae	Vespertilionidae
Genus	Akodon	Hesperoptenus
Species	Akodon torques	Hesperoptenus tomesi

Evolutionary Relationship

Cloud Forest Akodont and Large False Serotine share a common ancestor at the Class level: Mammalia. (mamíferos)

Conservation Status

Cloud Forest Akodont

LC — Least Concern

Large False Serotine

VU — Vulnerable

Physical Characteristics

Attribute	Cloud Forest Akodont	Large False Serotine
Diet	—	—
Average Lifespan	—	—
Average Length	—	—
Average Weight	—	—

Habitat & Geographic Range

Cloud Forest Akodont

Habitat

Typically found in diverse terrestrial and aquatic ecosystems.

Large False Serotine

Habitat

Typically found in diverse terrestrial and aquatic ecosystems.

Cloud Forest Akodont

Cloud forest akodonts are small rodents in the genus Akodon (family Cricetidae, subfamily Sigmodontinae) adapted to the cool, moist cloud forests of the Andean mountain chain in South America. These small mice, typically 15–25 g body weight, are among the most diverse rodent genera in the Neotropics, with dozens of species occupying a range of habitats from tropical lowland forest to high-elevation grasslands and cloud forest margins. Cloud forest species live in mossy, fern-rich undergrowth at elevations typically between 1,500 and 3,500 meters, where they forage for seeds, fungi, invertebrates, and plant material among dense vegetation and under fallen logs. Akodonts are important prey species for forest raptors, small cats, and mustelids, and serve as seed dispersers in cloud forest ecosystems. Many cloud forest akodont species have restricted ranges tied to specific elevation bands on individual mountain ranges, making them vulnerable to climate change-driven upslope habitat shifts that compress available habitat and may eventually eliminate suitable conditions on mountains of insufficient height.