Using Demographic Invariants to Detect Overharvested Bird Populations from Incomplete Data

By C. Niel, J. Lebreton. 2005

199 citations recorded by the source corpus.

Subfields: Ecology, Global and Planetary Change

View Paper: https://www.semanticscholar.org/paper/4b925017e91edc8f4bcbfcd36657678fed6f4401

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Ecology

1. Virginie Rolland
2. C. Barbraud
3. Henri Weimerskirch
4. Peter P. Marra
5. S. Loss
6. Tom C. Will
7. E. Cortés
8. David J. Fletcher

In Global and Planetary Change

1. Virginie Rolland
2. C. Barbraud
3. E. Cortés
4. Henri Weimerskirch
5. David J. Fletcher
6. Peter W. Dillingham
7. J. Lebreton
8. Peter P. Marra

Citations in the corpus

• Captive breeding genetics and reintroduction success (2009, background): “…and Clobert, 1995) to obtain (i) different life cycles with the same generation length and different annual deterministic growth rates; (ii) different life cycles with different generation lengths and similar per generation growth rates (see empirical justification in Niel and Lebreton, 2005).”
• DYNAMICAL AND STATISTICAL MODELS FOR EXPLOITED POPULATIONS † (2005, background): “However, following the proposition of c© 2005 Australian Statistical Publishing Association Inc. Morgan & Freeman (1989) for first-year survival in ring-recovery models, and using formal tools (Catchpole & Morgan, 1997) adapted to multistate models (Gimenez, Choquet & Lebreton, 2003), Schaub & Prade”
• Direct human‐caused mortality of birds: improving quantification of magnitude and assessment of population impact (2012, methodology): “…the data are incomplete, it may be possible to estimate r max using proxy parameters (generation time or adult survival and age at first breeding; Niel and Lebreton 2005), and these r max values can be used in PTL models to estimate allowable incidental take levels (Dillingham and Fletcher 2011).”
• Effects of climate change and fisheries bycatch on Southern Ocean seabirds : a review (2012, unknown): “The potential biological removal approach offers an interesting alternative way for assessing the poten- tial for populations to sustain additional mortalities (Wade 1998, Taylor et al. 2000, Niel & Lebreton 2005).”
• Perspectives on the intrinsic rate of population growth (2016, methodology): “…& Wilcox (1982); and an equation by Skalski, Millspaugh & Ryding (2008)); a method by Smith, Au & Show (1998) that implicitly assumes density dependence; and a demographic invariant method (DIM; Niel & Lebreton 2005; Dillingham 2010) that combines an agebased matrix model and an allometric model.”
• Relative influence of fisheries and climate on the demography of four albatross species (2010, background): “Since albatrosses are typical longlived seabirds with long generation times and low maximum population growth rates (Niel & Lebreton, 2005), their populations should be very sensitive to a variation in adult survival, more than in breeding success (Saether & Bakke, 2000).”
• Addressing fisheries bycatch in a changing world (2015, background): “In this section, we explore emerging innovations and transdisciplinary approaches that offer opportunities to tackle these ongoing challenges to bycatch reduction.”
• Direct Mortality of Birds from Anthropogenic Causes (2015, unknown): “PBR models allow shortcuts for difficult-to-estimate parameters (e.g., substituting intrinsic population growth rate with generation time or adult survival and age of first reproduction; Niel & Lebreton 2005, Dillingham & Fletcher 2011).”
• Estimating the ability of birds to sustain additional human-caused mortalities using a simple decision rule and allometric relationships (2008, methodology): “Combining the work of Wade (1998) and Niel and Lebreton (2005) allows estimation of allowable harvest levels for birds given only management objectives, an estimated population size, adult survival (s) and age at first reproduction (a).”