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Data and code for: Feeding, mating, and animal wellbeing: New insights from Phylogenetic Comparative Methods

Cite this dataset

Mellor, Emma (2023). Data and code for: Feeding, mating, and animal wellbeing: New insights from Phylogenetic Comparative Methods [Dataset]. Dryad. https://doi.org/10.5061/dryad.v6wwpzh0g

Abstract

Some species tend to thrive in captivity, while others risk health and reproductive problems. This enables the use of Phylogenetic Comparative Methods (PCMs) to identify aspects of natural biology that predispose species to faring poorly or well. Risk factors can then suggest new ways to improve animal care. A steady trickle of studies has applied PCMs to animal welfare over the last two decades, Lewis et al. (1) providing the latest. Here we contextualise this new work and suggest further research it might inspire.

Provided here are the data and R code for Figure 1 provided in a commentary on: (1) Lewis, K., M.O. Parker, L. Proops, and S.D. McBride, Risk factors for stereotypic behaviour in captive ungulates. Proceedings of the Royal Society B: Biological Sciences, 2022. 289(1983): p. 20221311.

Methods

Data on stereotypic behaviour came from Lewis et al. [1]. Values for (sex-specific) relative lifespan and species-typical percentage grass in the natural diet came from Müller et al. [2]. Following Müller et al. [2], we calculated relative lifespans (sexes pooled) using data from Moorad et al. [3]. Values for digestive health problems came from Gattiker et al. [4].

[1] Lewis, K., M.O. Parker, L. Proops, and S.D. McBride, Risk factors for stereotypic behaviour in captive ungulates. Proceedings of the Royal Society B: Biological Sciences, 2022. 289(1983): p. 20221311.

[2] Müller, D.W.H., L.B. Lackey, W.J. Streich, J. Fickel, J.-M. Hatt, and M. Clauss, Mating system, feeding type and ex situ conservation effort determine life expectancy in captive ruminants. Proceedings of the Royal Society B: Biological Sciences, 2011. 278(1714): p. 2076-2080.

[3] Moorad, J.A., D.E.L. Promislow, N. Flesness, and R.A. Miller, A comparative assessment of univariate longevity measures using zoological animal records. Aging Cell, 2012. 11(6): p. 940-948.

[4] Gattiker, C., I. Espie, A. Kotze, E.P. Lane, D. Codron, and M. Clauss, Diet and diet-related disorders in captive ruminants at the national zoological gardens of South Africa. Zoo Biology, 2014. 33(5): p. 426-432.

Usage notes

Data and code for: Feeding, mating, and animal wellbeing: New insights from Phylogenetic Comparative Methods

Provided here are the data and R code for Figure 1 provided in a commentary on: Lewis, K., M.O. Parker, L. Proops, and S.D. McBride, Risk factors for stereotypic behaviour in captive ungulates. Proceedings of the Royal Society B: Biological Sciences, 2022. 289(1983): p. 20221311.

Suitable for use in Excel and/or R.

Missing values indicated with 'NA'.

 

Metadata:

  • Species: species names as per Upham et al. [1]
  • PRA_percent_Gattiker: % of animals found to have parakeratosis, rumenitis, and/or ruminal acidosis at death from Gattiker et al. [2]
  • Teeth_probs_percent_Gattiker: % of animals found to have abnormally worn teeth at death
  • Abn_stomach_contents_percent_Gattiker: % of animals found to have abnormal stomach contents at death
  • Poor_BC_percent_Gattiker: % of animals in poor body condition at death 
  • SB_reported_Lewis: if stereotypic behaviour has been reported (yes v no) from Lewis et al. [3]
  • r_LE_from: the source of relative lifespan used in analyses (Müller et al. [4] or Moorad et al. [5])
  • r_LE_combo:species-specific relative lifespan [from 4 or 5]
  • Percent_grass_Muller: percentage of the natural diet that is grass

[1] Upham, N.S., J.A. Esselstyn, and W. Jetz, Inferring the mammal tree: Species-level sets of phylogenies for questions in ecology, evolution, and conservation. PLOS Biology, 2019. 17(12): p. e3000494.

[2] Gattiker, C., I. Espie, A. Kotze, E.P. Lane, D. Codron, and M. Clauss, Diet and diet-related disorders in captive ruminants at the national zoological gardens of South Africa. Zoo Biology, 2014. 33(5): p. 426-432.

[3] Lewis, K., M.O. Parker, L. Proops, and S.D. McBride, Risk factors for stereotypic behaviour in captive ungulates. Proceedings of the Royal Society B: Biological Sciences, 2022. 289(1983): p. 20221311.

[4] Müller, D.W.H., L.B. Lackey, W.J. Streich, J. Fickel, J.-M. Hatt, and M. Clauss, Mating system, feeding type and ex situ conservation effort determine life expectancy in captive ruminants. Proceedings of the Royal Society B: Biological Sciences, 2011. 278(1714): p. 2076-2080.

[5] Moorad, J.A., D.E.L. Promislow, N. Flesness, and R.A. Miller, A comparative assessment of univariate longevity measures using zoological animal records. Aging Cell, 2012. 11(6): p. 940-948.

Funding

Natural Sciences and Engineering Research Council