African Leopard

Panthera pardus ssp. pardus

Abstract

African Leopard Panthera pardus ssp. pardus has most recently been assessed for The IUCN Red List of Threatened Species in 2024. Panthera pardus ssp. pardus is listed as Vulnerable under criteria A2cd.

The Red List Assessment i

Stein, A.B., Gerngross, P., Bauer, H., Chataigner, B., Drouilly, M., Henschel, P., Mann, G. & Searle, C. 2025. Panthera pardus ssp. pardus. The IUCN Red List of Threatened Species 2025: e.T271005149A271005197. Accessed on 12 February 2026.

Language

English

Last assessed

15 May 2024

Scope of assessment

Global

The Green Status Assessment i

Stein, A.B., Aebischer, T., Carlton, E., Chataigner, B., Langat, C.K., Davis, R., Drouilly, M., Fraticelli, C., Gaubert, E., Gedow, O., Gerngross, P., Lapeyre, V., Loveridge, A., Mann, G., Melzheimer, J., Ndiaye, M.M., Nutsuakor, M.E., Pilfold, N., Roy, S., Yahou, H. & Yamane, Y. 2024. Panthera pardus ssp. pardus (Green Status assessment). The IUCN Red List of Threatened Species 2024: e.T271005149A27100514920252. Accessed on 12 February 2026.

Language

English

Last assessed

10 November 2024

Scope of assessment

Global

Population trend

Decreasing

Number of mature individuals

Species recovery score

27% (27% - 53%)

Geographic range

  • Extant (resident)

  • Possibly Extant (resident)

  • Possibly Extinct

  • Extinct

Peter Gerngross 2024. Panthera pardus ssp. pardus. The IUCN Red List of Threatened Species. Version 2025-2

Assessment Information

Global Assessment

IUCN Red List Category and Criteria - Global Assessment

Vulnerable   A2cd

Date assessed

15 May 2024

Year published

2025

Assessment Information in detail

Green Status Assessment Information

IUCN SPECIES RECOVERY CATEGORY

Largely Depleted

Species Recovery Score

27% (27% - 53%)

Date assessed

10 November 2024

Year published

2024

Conservation impact metrics

Conservation Legacy
Conservation Dependence
Conservation Gain
Recovery Potential
Green Status Assessment Information in detail

Geographic Range

Native

Extant (resident)

Angola; Benin; Botswana; Burkina Faso; Burundi; Cameroon; Central African Republic; Chad; Congo; Congo, The Democratic Republic of the; Côte d'Ivoire; Djibouti; Egypt; Equatorial Guinea; Eritrea; Eswatini; Ethiopia; Gabon; Ghana; Guinea; Guinea-Bissau; Kenya; Liberia; Malawi; Mozambique; Namibia; Niger; Nigeria; Rwanda; Senegal; Sierra Leone; Somalia; South Africa; South Sudan; Sudan; Tanzania, United Republic of; Uganda; Zambia; Zimbabwe

Possibly Extinct

Gambia; Lesotho; Mali

Extinct

Algeria; Mauritania; Morocco; Togo; Tunisia

Number of locations

Upper elevation limit

5,200 metres

Lower elevation limit

0 metres

Geographic Range in detail

Indigenous and Expected Additional Range

Benchmark Year

1500

Expected Additional Range

No

Indigenous and Expected Additional Range in detail

Population

Current population trend

Decreasing

Number of mature individuals

Population severely fragmented

No

Continuing decline of mature individuals

Population in detail

Spatial Units

Spatial Units

Central Africa; Eastern Africa; Northern Africa; Southern Africa; Western Africa

Number of Spatial Units

5

Spatial Units Definition Method

Combination

Spatial units description

At the benchmark year, it is likely that connectivity between leopard habitats was high throughout the African mainland, except the Sahara (Jacobson et al. 2016). African Leopards are seen as a single genetic grouping (Kitchener et al. 2017). Nevertheless, 'geographically they are subject to different pressures that require area-specific categorizations and conservation status assessments' (Kitchener et al. 2017). Anco et al. (2018) found that mtDNA samples of African Leopards indicate high levels of divergence between regions and strongly differentiated lineages in west Africa. Therefore, spatial units are delineated based on a combination of: genetic differences, major geographic barriers (e.g. rivers, lakes), strength of connectivity, the need to keep (meta)populations together, and ecoregions, while taking into account that each spatial unit should be of similar conservation importance to the subspecies.

Detailed information on the bases for delineating units can be found in the spatial unit descriptions below.

Spatial Units in detail

Ecological Function

Functionality description

Leopards in Africa coexist with many other species and the situation surrounding their ecological functionality is complex. This makes it very difficult to measure evidence of interactions with prey and other carnivores (G. Mann pers. comm. 2024; Tossens et al. 2024).

A commonly-used proxy for functionality is population density. However, defining a Functional density threshold for the leopard is challenging. Leopard densities across Africa are known to track the biomass of their principal prey species: medium- and large-sized wild herbivores (Marker and Dickman 2005, Hayward et al. 2007). Thus, leopard density varies greatly—by an order of magnitude—both between and within regions (A. Loveridge pers. comm. 2024). There are no areas with low human impact where data on African Leopard densities are available to use as a proxy, nor is there information on the densities and population sizes of the leopard at the benchmark date of 1500. The highest African Leopard densities are found in managed protected areas, where management by humans most likely leads to artificially high densities. Given the lack of suitable data and high spatial and temporal variation, any attempt to define a Functional density threshold for the African Leopard would be spurious. Therefore, other criteria are required.

The Green Status Guidelines stipulate that for a spatial unit to be considered Functional, it must first be assessed as Viable (i.e. the population within the spatial unit must be Least Concern or Near Threatened without a continuing decline, according to Regional Red List Criteria). Genetic and demographic viability are also important precursors of leopard functionality, as they are essential for maintaining the population density and age structure required for the subspecies to exert its functions. Furthermore, leopard densities track the biomass of their principal prey species (Marker and Dickman 2005, Hayward et al. 2007). Therefore, if prey populations are artificially depleted, leopards will also be artificially depleted—even if at carrying capacity—and will not be functioning at pre-impact levels. Additionally, in 1500 there would have been greater connectivity between currently fragmented (and isolated) leopard subpopulations, and healthy metapopulation dynamics would have been widespread. Given the above, the Functional state is defined as follows.

Functionality for the African Leopard is first assessed at the level of subpopulations within a spatial unit. If Functional subpopulations cover most of the indigenous range within a spatial unit, that spatial unit is assigned 'Functional' status. Subpopulations must meet all of the following criteria to be considered Functional:

  • the subpopulation is genetically viable (see the three genetic indicators proposed by Hoban et al. 2020, which can be applied at the level of the spatial unit/metapopulation);
  • prey is not artificially reduced relative to levels seen pre-1500s, and leopards are not reliant on livestock or introduced prey species in a way that reduces functionality being exerted on 'natural' prey populations; and
  • indicators of healthy metapopulation dynamics are exhibited.
Indicators of healthy metapopulation dynamics may vary between regions, but could include factors such as: genetic variation within and between sites; high habitat connectivity via functioning dispersal corridors, with regular migration resulting in high genetic diversity; overall growth/stability of the metapopulation (even though individual subpopulations may decline or go extinct); effective recolonisation after local extinction; balanced source-sink dynamics, whereby source populations with high reproductive success consistently supply individuals to sink populations with lower reproductive success; adaptation to local conditions (which may be different from one site to another), improving the metapopulation's resilience to environmental changes; and varied age distributions in each local subpopulation within the metapopulation to ensure ongoing reproduction and generational turnover.

Ecological Function in detail

Threats

Residential & commercial development

  • Housing & urban areas

Agriculture & aquaculture

  • Annual & perennial non-timber crops
  • Wood & pulp plantations
  • Livestock farming & ranching

Energy production & mining

  • Mining & quarrying

Biological resource use

  • Hunting & trapping terrestrial animals
  • Logging & wood harvesting

Human intrusions & disturbance

  • War, civil unrest & military exercises

Natural system modifications

  • Fire & fire suppression
  • Dams & water management/use
  • Other ecosystem modifications
Threats in detail

Conservation Actions

In-place land/water protection

  • Occurs in at least one protected area : Yes

In-place species management

  • Successfully reintroduced or introduced benignly : Yes
  • Subject to ex-situ conservation : Yes

In-place education

  • Subject to recent education and awareness programmes : Yes
  • Included in international legislation : Yes
  • Subject to any international management / trade controls : Yes
Conservation Actions in detail

Bibliography

Red List Bibliography
Green Status Bibliography

External Data

CITES Legislation from Species+

Data source

The information below is from the Species+ website.

CITES Legislation from Species+ in detail

Ex situ data from Species360

Data source

The information below is from Species360's Zoological Information Management System (ZIMS)

Ex situ data from Species360 in detail

Studies and Actions from Conservation Evidence

Data source

The information below is from the Conservation Evidence website.

Studies and Actions from Conservation Evidence in detail