An integrated modeling approach to estimating Gunnison sage‐grouse population dynamics: combining index and demographic data

Evaluation of population dynamics for rare and declining species is often limited to data that are sparse and/or of poor quality. Frequently, the best data available for rare bird species are based on large‐scale, population count data. These data are commonly based on sampling methods that lack con...

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Veröffentlicht in:Ecology and evolution 2014-11, Vol.4 (22), p.4247-4257
Hauptverfasser: Davis, Amy J., Hooten, Mevin B., Phillips, Michael L., Doherty, Paul F.
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container_issue 22
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container_title Ecology and evolution
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creator Davis, Amy J.
Hooten, Mevin B.
Phillips, Michael L.
Doherty, Paul F.
description Evaluation of population dynamics for rare and declining species is often limited to data that are sparse and/or of poor quality. Frequently, the best data available for rare bird species are based on large‐scale, population count data. These data are commonly based on sampling methods that lack consistent sampling effort, do not account for detectability, and are complicated by observer bias. For some species, short‐term studies of demographic rates have been conducted as well, but the data from such studies are typically analyzed separately. To utilize the strengths and minimize the weaknesses of these two data types, we developed a novel Bayesian integrated model that links population count data and population demographic data through population growth rate (λ) for Gunnison sage‐grouse (Centrocercus minimus). The long‐term population index data available for Gunnison sage‐grouse are annual (years 1953–2012) male lek counts. An intensive demographic study was also conducted from years 2005 to 2010. We were able to reduce the variability in expected population growth rates across time, while correcting for potential small sample size bias in the demographic data. We found the population of Gunnison sage‐grouse to be variable and slightly declining over the past 16 years. This manuscript presents an innovative approach for combining short‐term, field‐intensive demographic information with long‐term, less costly index data based on counts through integrated hierarchical modelling. We show that the combination of index data with stronger, demographic data results in a better understanding of long‐term population trends for the proposed endangered species Gunnison Sage‐Grouse (Centrocercus minimus).
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subjects Bayesian
Bayesian analysis
Bias
Birds
Centrocercus minimus
Demographics
Economic models
Endangered & extinct species
Estimates
Growth rate
integrated population model
lek counts
Leslie transition matrix
Males
Methods
Original Research
Population decline
Population dynamics
Population growth
population projection
Rare species
Sampling
Sampling methods
Studies
Wildfowl
title An integrated modeling approach to estimating Gunnison sage‐grouse population dynamics: combining index and demographic data
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