Linked from

The 18 pages that link to Species distribution, each with the reason it gives.

• Biological invasionRelated: Comparing native and established distributions makes range expansion visible.

• Conservation statusRelated: Restricted or fragmented distributions can raise extinction risk even when local populations persist.

• Indicator speciesRelated: Observed presence or absence becomes meaningful only against a species’ expected distribution.

• Thermal toleranceRelated: Thermal tolerance helps set the environmental boundaries of where populations can persist.

• Deep-sea biodiversityRelated: Sparse observations leave the ranges and connectivity of deep-sea species uncertain.

• Native speciesRelated: Native status is assessed against a species' distribution in a defined region.

• Population densityRelated: A distribution map shows where density can be measured and where populations are absent.

• Wildlife surveyRelated: Survey records map where wildlife occurs across a landscape.

• Risso’s dolphinRelated: The species inhabits temperate and tropical waters across much of the world.

• EurythermRelated: Temperature tolerance can constrain where a species persists.

• Nile monitorRelated: The Nile monitor spans much of sub-Saharan Africa, but local occurrence and range boundaries vary.

• BioclimatologyRelated: Climatic tolerances help define where populations can persist.

• CallorhinchusRelated: Mapping the ranges of each Callorhinchus species helps identify gaps in sampling and protection.

• Common collared lizardRelated: Range maps help distinguish populations and assess changes across its North American range.

• ElaninaeRelated: Range and population data remain uneven for some Elaninae kites.

• Giant Gippsland earthwormRelated: The worm’s range is narrow, and its underground habits complicate mapping.

• PumpkinseedRelated: Comparing native and introduced ranges shows how widely pumpkinseeds have spread.