Population Dynamics of Wild Goats

A special issue of Biology (ISSN 2079-7737).

Deadline for manuscript submissions: closed (1 August 2023) | Viewed by 3906

Special Issue Editor


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Guest Editor
OFB – Office Français de la Biodiversité – Direction de la Recherche et Appui Scientifique – Service Anthropisation et Fonctionnement des Ecosystèmes Terrestres, Unité Sanitaire de la Faune, Gières, France
Interests: ecology; conservation; ungulates; Alpine Ibex

Special Issue Information

Dear Colleagues,

Large herbivores play a central role in ecosystems through their impact on vegetation and because they are prey for large predators. Under the current global changes, gathering and analysing information on behaviour and population dynamics of large herbivores is thus crucial for a more integrative understanding of ecosystem functioning, and to have a vision of their potential evolution.

Among large herbivores, wild goats (Capra sp.) have special life-history characteristics. They can live in incredibly difficult habitats, from deserts where water is limited to the highest mountains in the world, where they face extremely harsh winters. They exhibit among the strongest sexual size dimorphism of mammals, males being twice as heavy as females and bearing much longer horns. This leads to substantial different ecological needs between sexes, as well as sexual segregation, sex-specific social traits, and sex-specific ageing patterns. They are highly social and may live in large groups, whose size, composition, and location can be highly variable depending on season, habitat, and density. They have long been considered to be only altitudinal migrants, but recent results show the occurrence of true seasonal migration, though variable between populations. Migration seems most often partial, thus reshuffling social ties and individuals’ spatial distribution seasonally. Last, wild goats have evolved a conservative life-history strategy, based on slow growth and, for males, an investment in mating based on the natural high dominance rank provided by old age. How these characteristics (habitat harshness, sexual dimorphism and segregation, group living, partial migration, conservative life history) impact population dynamics is worth studying deeper in a large range of species and environments, notably in the current context of global change. Indeed, most wild goat species undergo conservation issues according to the IUCN red list reassessed in 2020, while attracting significant interest among trophy hunters and for wildlife tourism. Except for the two European species (C. ibex and C. pyrenaica), classified as of least concern because their numbers are stable, all other species are classified as near threatened, vulnerable or endangered. Major threats to these species come from hybridisation with domestic goats, hunting, and poaching and from the ongoing global changes, which are particularly pronounced in deserts and mountains where these species live. Climate warming, the increased use of mountains for recreational activities, the modification of the land use for agro-forestry and the sharing of resources with domestic herds, and the intensification of infrastructure networks may all have significant consequences for wild goat populations and require further investigation.

The purpose of this Special Issue is to provide an overview of behaviour, population dynamics,  life-history strategy, monitoring, and conservation of wild goats in response to global changes. The active sharing of recent advances in the study of wild goats should help the scientific community to identify and develop conservation strategies for Capra sp. populations and their habitats. We are pleased to invite submissions of all types relevant to the theme of this issue (reviews or original papers).

Dr. Carole Toïgo
Guest Editor

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Keywords

  • wild goat
  • Capra sp.
  • behaviour
  • population dynamics
  • life-history strategy
  • monitoring
  • hybridisation
  • domestic herd
  • climate change
  • recreational activities

Published Papers (2 papers)

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Research

14 pages, 5917 KiB  
Article
Mid-Pleistocene Transitions Forced Himalayan ibex to Evolve Independently after Split into an Allopatric Refugium
by Gul Jabin, Bheem Dutt Joshi, Ming-Shan Wang, Tanoy Mukherjee, Stanzin Dolker, Sheng Wang, Kailash Chandra, Venkatraman Chinnadurai, Lalit Kumar Sharma and Mukesh Thakur
Biology 2023, 12(8), 1097; https://0-doi-org.brum.beds.ac.uk/10.3390/biology12081097 - 7 Aug 2023
Cited by 1 | Viewed by 1292
Abstract
Pleistocene glaciations had profound impact on the spatial distribution and genetic makeup of species in temperate ecosystems. While the glacial period trapped several species into glacial refugia and caused abrupt decline in large populations, the interglacial period facilitated population growth and range expansion [...] Read more.
Pleistocene glaciations had profound impact on the spatial distribution and genetic makeup of species in temperate ecosystems. While the glacial period trapped several species into glacial refugia and caused abrupt decline in large populations, the interglacial period facilitated population growth and range expansion leading to allopatric speciation. Here, we analyzed 40 genomes of four species of ibex and found that Himalayan ibex in the Pamir Mountains evolved independently after splitting from its main range about 0.1 mya following the Pleistocene species pump concept. Demographic trajectories showed Himalayan ibex experienced two historic bottlenecks, one each c. 0.8–0.5 mya and c. 50–30 kya, with an intermediate large population expansion c. 0.2–0.16 mya coinciding with Mid-Pleistocene Transitions. We substantiate with multi-dimensional evidence that Himalayan ibex is an evolutionary distinct phylogenetic species of Siberian ibex which need to be prioritized as Capra himalayensis for taxonomic revision and conservation planning at a regional and global scale. Full article
(This article belongs to the Special Issue Population Dynamics of Wild Goats)
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15 pages, 2706 KiB  
Article
Lahaul–Zanskar–Sham Valley Corridor in Indian Trans Himalayan Region Facilitates Dispersal and Gene Flow in Himalayan Ibex
by Gul Jabin, Stanzin Dolker, Bheem Dutt Joshi, Sujeet Kumar Singh, Kailash Chandra, Lalit Kumar Sharma and Mukesh Thakur
Biology 2023, 12(3), 382; https://0-doi-org.brum.beds.ac.uk/10.3390/biology12030382 - 28 Feb 2023
Cited by 1 | Viewed by 2221
Abstract
Wildlife corridors that connect mosaic habitats in heterogeneous mountainous landscapes can be of high significance as they facilitate the genetic and demographic stability of free-ranging populations. Peripheral populations of widespread species are usually ignored in conservation planning. However, these populations retain locally common [...] Read more.
Wildlife corridors that connect mosaic habitats in heterogeneous mountainous landscapes can be of high significance as they facilitate the genetic and demographic stability of free-ranging populations. Peripheral populations of widespread species are usually ignored in conservation planning. However, these populations retain locally common alleles and are genetic reservoir under the changing climatic conditions. Capra sibirica has widespread distribution, and its southern peripheral population is distributed in the Indian trans-Himalayan region (ITR). In the present study, we studied the spatial distribution and genetic make-up of Himalayan ibex from the ITR following the landscape genetics approach. We obtained 16 haplotypes at the mitochondrial d-loop region and found a stable demography in the past with a recent decline. With 10 nuclear microsatellites, we ascertained 111 unique individuals assigned into two clusters following Bayesian and non-Bayesian clustering analysis with several admixed individuals. We also recorded 25 first-generation migrants that reflected relatively high dispersal and gene-flow across the range. We identified a 19,835 sq.km suitable area with 13,311 sq.km in Ladakh and 6524 sq.km in Lahaul-Spiti. We identified a novel movement corridor for Himalayan ibex across the Lahaul–Zanskar–Sham valley (L–Z–SV) that displayed a fairly good conductance with low genetic divergence among the samples collected on the L–Z–SV corridor. We propose declaring a protected area in the Lahaul and Kargil districts to prioritize dedicated conservation efforts for the Himalayan ibex and other sympatric ungulates that impart a major role in the diet of large carnivore and balancing ecosystem services in the trans-Himalayan region. Full article
(This article belongs to the Special Issue Population Dynamics of Wild Goats)
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