Clarifying space use concepts in ecology: range vs. occurrence distributions

Quantifying animal movements is necessary for answering a wide array of research questions in ecology and conservation biology. Consequently, ecologists have made considerable efforts to identify the best way to estimate an animal's home range, and many methods of estimating home ranges have ar...

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Main Authors Alston, Jesse M, Fleming, Christen H, Noonan, Michael J, Tucker, Marlee A, Silva, Ines, Folta, Cody, Akre, Thomas S, Ali, Abdullahi H, Belant, Jerrold L, Beyer, Dean, Blaum, Niels, Boehning-Gaese, Katrin, Rogerio Cunha De Paula, Dekker, Jasja, Drescher-Lehman, Jonathan, Farwig, Nina, Fichtel, Claudia, Fischer, Christina, d, Adam T, Janssen, Rene, Jeltsch, Florian, Kappeler, Peter M, Lapoint, Scott D, Markham, A Catherine, Medici, Patricia, Morato, Ronaldo G, Ran, Nathan, Olson, Kirk, Patterson, Bruce D, Petroelje, Tyler, Ramalho, Emiliano Esterci, Roesner, Sascha, Luiz Gustavo Ro Santos, Schabo, Dana G, Selva, Nuria, Sergiel, Agnieszka, Orr Spiegel, Ullman, Wiebke, Zieba, Filip, Zwijacz-Kozica, Tomasz, Wittemyer, George, Fagan, William F, Mueller, Thomas, Calabrese, Justin M
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LanguageEnglish
Published Cold Spring Harbor Cold Spring Harbor Laboratory Press 30.09.2022
Cold Spring Harbor Laboratory
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ISSN2692-8205
2692-8205
DOI10.1101/2022.09.29.509951

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Abstract Quantifying animal movements is necessary for answering a wide array of research questions in ecology and conservation biology. Consequently, ecologists have made considerable efforts to identify the best way to estimate an animal's home range, and many methods of estimating home ranges have arisen over the past half century. Most of these methods fall into two distinct categories of estimators that have only recently been described in statistical detail: those that measure range distributions (methods such as Kernel Density Estimation that quantify the long-run behavior of a movement process that features restricted space use) and those that measure occurrence distributions (methods such as Brownian Bridge Movement Models and the Correlated Random Walk Library that quantify uncertainty in an animal movement path during a specific period of observation). In this paper, we use theory, simulations, and empirical analysis to demonstrate the importance of applying these two classes of space use estimators appropriately and distinctly. Conflating range and occurrence distributions can have serious consequences for ecological inference and conservation practice. For example, in most situations, home-range estimates quantified using occurrence estimators are too small, and this problem is exacerbated by ongoing improvements in tracking technology that enable more frequent and more accurate data on animal movements. We encourage researchers to use range estimators to estimate the area of home ranges and occurrence estimators to answer other questions in movement ecology, such as when and where an animal crosses a linear feature, visits a location of interest, or interacts with other animals. Competing Interest Statement The authors have declared no competing interest.
AbstractList Quantifying animal movements is necessary for answering a wide array of research questions in ecology and conservation biology. Consequently, ecologists have made considerable efforts to identify the best way to estimate an animal’s home range, and many methods of estimating home ranges have arisen over the past half century. Most of these methods fall into two distinct categories of estimators that have only recently been described in statistical detail: those that measure range distributions (methods such as Kernel Density Estimation that quantify the long-run behavior of a movement process that features restricted space use) and those that measure occurrence distributions (methods such as Brownian Bridge Movement Models and the Correlated Random Walk Library that quantify uncertainty in an animal movement path during a specific period of observation). In this paper, we use theory, simulations, and empirical analysis to demonstrate the importance of applying these two classes of space use estimators appropriately and distinctly. Conflating range and occurrence distributions can have serious consequences for ecological inference and conservation practice. For example, in most situations, home-range estimates quantified using occurrence estimators are too small, and this problem is exacerbated by ongoing improvements in tracking technology that enable more frequent and more accurate data on animal movements. We encourage researchers to use range estimators to estimate the area of home ranges and occurrence estimators to answer other questions in movement ecology, such as when and where an animal crosses a linear feature, visits a location of interest, or interacts with other animals. Tracking data on Aepyceros melampus, Beatragus hunteri, Bycanistes bucinator, Cerdocyon thous, Eulemur rufifrons, Glyptemys insculpta, Gyps coprotheres, Madoqua guentheri, Ovis canadensis, Propithecus verreauxi, Sus scrofa, and Ursus arctos are publicly archived in the Dryad repository (Noonan et al. 2018; https://doi.org/10.5061/dryad.v5051j2), as are data from Procapra gutturosa (Fleming et al. 2014a; https://doi.org/10.5061/dryad.45157). Data on Panthera onca were taken from (Morato et al. 2018). Additional data are publicly archived in the Movebank repository under the following identifiers: Canis latrans, 8159699; Canis lupus, 8159399; Chrysocyon brachyurus, 18156143; Felis silvestris, 40386102; Gyps africanus, 2919708; Lepus europaeus, 25727477; Martes pennanti, 2964494; Panthera leo, 220229; Papio cynocephalus, 222027; Syncerus caffer, 1764627; Tapirus terrestris, 443607536; Torgos tracheliotus, 2919708; and Ursus americanus, 8170674.
Quantifying animal movements is necessary for answering a wide array of research questions in ecology and conservation biology. Consequently, ecologists have made considerable efforts to identify the best way to estimate an animal's home range, and many methods of estimating home ranges have arisen over the past half century. Most of these methods fall into two distinct categories of estimators that have only recently been described in statistical detail: those that measure range distributions (methods such as Kernel Density Estimation that quantify the long-run behavior of a movement process that features restricted space use) and those that measure occurrence distributions (methods such as Brownian Bridge Movement Models and the Correlated Random Walk Library that quantify uncertainty in an animal movement path during a specific period of observation). In this paper, we use theory, simulations, and empirical analysis to demonstrate the importance of applying these two classes of space use estimators appropriately and distinctly. Conflating range and occurrence distributions can have serious consequences for ecological inference and conservation practice. For example, in most situations, home-range estimates quantified using occurrence estimators are too small, and this problem is exacerbated by ongoing improvements in tracking technology that enable more frequent and more accurate data on animal movements. We encourage researchers to use range estimators to estimate the area of home ranges and occurrence estimators to answer other questions in movement ecology, such as when and where an animal crosses a linear feature, visits a location of interest, or interacts with other animals. Competing Interest Statement The authors have declared no competing interest.
Author Patterson, Bruce D
Luiz Gustavo Ro Santos
Roesner, Sascha
Boehning-Gaese, Katrin
Ramalho, Emiliano Esterci
Janssen, Rene
Mueller, Thomas
Noonan, Michael J
Akre, Thomas S
Selva, Nuria
Ali, Abdullahi H
Rogerio Cunha De Paula
Folta, Cody
Medici, Patricia
Sergiel, Agnieszka
Fleming, Christen H
Ullman, Wiebke
Schabo, Dana G
Fischer, Christina
Zwijacz-Kozica, Tomasz
Fichtel, Claudia
Blaum, Niels
Fagan, William F
Orr Spiegel
Alston, Jesse M
d, Adam T
Markham, A Catherine
Silva, Ines
Petroelje, Tyler
Belant, Jerrold L
Tucker, Marlee A
Dekker, Jasja
Calabrese, Justin M
Kappeler, Peter M
Morato, Ronaldo G
Lapoint, Scott D
Beyer, Dean
Ran, Nathan
Olson, Kirk
Farwig, Nina
Drescher-Lehman, Jonathan
Jeltsch, Florian
Wittemyer, George
Zieba, Filip
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Keywords space use
utilization distribution
Brownian bridge movement model
stochastic process models
kernel density estimator (KDE)
movement ecology
home range
movement model
Kriging
Language English
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Snippet Quantifying animal movements is necessary for answering a wide array of research questions in ecology and conservation biology. Consequently, ecologists have...
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SubjectTerms Conservation
Ecology
Home range
Movement ecology
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Title Clarifying space use concepts in ecology: range vs. occurrence distributions
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https://www.biorxiv.org/content/10.1101/2022.09.29.509951
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