https://github.com/cjabradshaw/devilpopmodel
Population model for Tasmanian devils
Science Score: 13.0%
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Low similarity (8.3%) to scientific vocabulary
Keywords
cohort-based-model
dasyurid
dasyuridae
devil-facial-tumour-disease
disease
marsupial
matrix-model
population-model
scarcophilus-harrissii
tasmania
tasmanian-devil
Last synced: 5 months ago
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Population model for Tasmanian devils
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Topics
cohort-based-model
dasyurid
dasyuridae
devil-facial-tumour-disease
disease
marsupial
matrix-model
population-model
scarcophilus-harrissii
tasmania
tasmanian-devil
Created about 5 years ago
· Last pushed over 4 years ago
https://github.com/cjabradshaw/devilpopmodel/blob/main/
# devil population modelPopulation model for Tasmanian devils Accompanies paper: Bradshaw, CJA, BW Brook. 2005. Disease and the devil: density-dependent epidemiological processes explain historical population fluctuations in the Tasmanian devil. Ecography 28: 181-190 ## Abstract Australias last mega-carnivore marsupial, the Tasmanian devil Sarcophilus harrisii, Dasyuridae is endemic to the island state of Tasmania. The recent appearance and rapid spread of a debilitating and usually lethal, cancer-like disease has raised concerns regarding the species future. We used a demographic matrix modelling approach to evaluate the potential long-term implications of epidemics on this population. Both adult survival and temporally autocorrelated re-occurrence of disease were expressed as a function of female abundance. Large fluctuations in abundance resulted when disease outbreaks were conditioned to be density-dependent; however, this resulted in a low probability of quasi-extinction due to the dissipation of disease transmission at low densities. Epidemic stochasticity alone in an otherwise deterministic model resulted in major population cycles occurring every 77-146 yr, consistent with historical reports. Although epidemics in this species may not result in extinction directly, the contemporary presence of additional mortality sources during periods of low abundance may increase extinction risk. ## Matlab file
devil_short.m## More information See also a more recent version of the devil population model (R code) published in: - Bradshaw, CJA, CN Johnson, J Llewelyn, V Weisbecker, G Strona, F Saltr. 2021. Relative demographic susceptibility does not explain the extinction chronology of Sahuls megafauna. eLife 10: e63870. doi:10.7554/eLife.63870 - and its associated Github repository here (specifically, see lines 4757-4997 in scriptSahul megafauna demographic susceptibility-base models.R)
Owner
- Name: Corey Bradshaw
- Login: cjabradshaw
- Kind: user
- Location: Adelaide, South Australia
- Company: Flinders University
- Website: http://globalecologyflinders.com
- Twitter: conservbytes
- Repositories: 15
- Profile: https://github.com/cjabradshaw
Matthew Flinders Professor of Global Ecology @GlobalEcologyFlinders @CABAH
Population model for Tasmanian devils
Accompanies paper:
Bradshaw, CJA, BW Brook. 2005.