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1. Mammals show faster recovery from capture and tagging in human-disturbed landscapes

Author

Stiegler, Jonas, Gallagher, Cara A., Hering, Robert, Müller, Thomas, Tucker, Marlee, Apollonio, Marco, Arnold, Janosch, Barker, Nancy A., Barthel, Leon, Bassano, Bruno, Beest, Floris M. van, Belant, Jerrold L., Berger, Anne, Beyer Jr, Dean E., Bidner, Laura R., Blake, Stephen, Börner, Konstantin, Brivio, Francesca, Brogi, Rudy, Buuveibaatar, Bayarbaatar, Cagnacci, Francesca, Dekker, Jasja, Dentinger, Jane, Duľa, Martin, Duquette, Jarred F., Eccard, Jana A., Evans, Meaghan N., Ferguson, Adam W., Fichtel, Claudia, Ford, Adam T., Fowler, Nicholas L., Gehr, Benedikt, Getz, Wayne M., Goheen, Jacob R., Goossens, Benoit, Grignolio, Stefano, Haugaard, Lars, Hauptfleisch, Morgan, Heim, Morten, Heurich, Marco, Hewison, Mark A. J., Isbell, Lynne A., Janssen, René, Jarnemo, Anders, Jeltsch, Florian, Miloš, Jezek, Kaczensky, Petra, Kamiński, Tomasz, Kappeler, Peter, Kasper, Katharina, Kautz, Todd M., Kimmig, Sophia, Kjellander, Petter, Kowalczyk, Rafał, Kramer-Schadt, Stephanie, Kröschel, Max, Krop-Benesch, Anette, Linderoth, Peter, Lobas, Christoph, Lokeny, Peter, Lührs, Mia-Lana, Matsushima, Stephanie S., McDonough, Molly M., Melzheimer, Jörg, Morellet, Nicolas, Ngatia, Dedan K., Obermair, Leopold, Olson, Kirk A., Patanant, Kidan C., Payne, John C., Petroelje, Tyler R., Pina, Manuel, Piqué, Josep, Premier, Joseph, Pufelski, Jan, Pyritz, Lennart, Ramanzin, Maurizio, Roeleke, Manuel, Rolandsen, Christer M., Saïd, Sonia, Sandfort, Robin, Schmidt, Krzysztof, Schmidt, Niels M., Scholz, Carolin, Schubert, Nadine, Selva, Nuria, Sergiel, Agnieszka, Serieys, Laurel E. K., Silovský, Václav, Slotow, Rob, Sönnichsen, Leif, Solberg, Erling J., Stelvig, Mikkel, Street, Garrett M., Sunde, Peter, Svoboda, Nathan J., Thaker, Maria, Tomowski, Maxi, Ullmann, Wiebke, Vanak, Abi T., Wachter, Bettina, Webb, Stephen L., Wilmers, Christopher C., Zieba, Filip, Zwijacz-Kozica, Tomasz, and Blaum, Niels

Published
2024
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3. Evaluating expert‐based habitat suitability information of terrestrial mammals with GPS‐tracking data

Author

Broekman, Maarten JE, Hilbers, Jelle P, Huijbregts, Mark AJ, Mueller, Thomas, Ali, Abdullahi H, Andrén, Henrik, Altmann, Jeanne, Aronsson, Malin, Attias, Nina, Bartlam‐Brooks, Hattie LA, Beest, Floris M, Belant, Jerrold L, Beyer, Dean E, Bidner, Laura, Blaum, Niels, Boone, Randall B, Boyce, Mark S, Brown, Michael B, Cagnacci, Francesca, Černe, Rok, Chamaillé‐Jammes, Simon, Dejid, Nandintsetseg, Dekker, Jasja, Desbiez, Arnaud LJ, Díaz‐Muñoz, Samuel L, Fennessy, Julian, Fichtel, Claudia, Fischer, Christina, Fisher, Jason T, Fischhoff, Ilya, Ford, Adam T, Fryxell, John M, Gehr, Benedikt, Goheen, Jacob R, Hauptfleisch, Morgan, Hewison, AJ Mark, Hering, Robert, Heurich, Marco, Isbell, Lynne A, Janssen, René, Jeltsch, Florian, Kaczensky, Petra, Kappeler, Peter M, Krofel, Miha, LaPoint, Scott, Latham, A David M, Linnell, John DC, Markham, A Catherine, Mattisson, Jenny, Medici, Emilia Patricia, Mourão, Guilherme Miranda, Van Moorter, Bram, Morato, Ronaldo G, Morellet, Nicolas, Mysterud, Atle, Mwiu, Stephen, Odden, John, Olson, Kirk A, Ornicāns, Aivars, Pagon, Nives, Panzacchi, Manuela, Persson, Jens, Petroelje, Tyler, Rolandsen, Christer Moe, Roshier, David, Rubenstein, Daniel I, Saïd, Sonia, Salemgareyev, Albert R, Sawyer, Hall, Schmidt, Niels Martin, Selva, Nuria, Sergiel, Agnieszka, Stabach, Jared, Stacy‐Dawes, Jenna, Stewart, Frances EC, Stiegler, Jonas, Strand, Olav, Sundaresan, Siva, Svoboda, Nathan J, Ullmann, Wiebke, Voigt, Ulrich, Wall, Jake, Wikelski, Martin, Wilmers, Christopher C, Zięba, Filip, Zwijacz‐Kozica, Tomasz, Schipper, Aafke M, and Tucker, Marlee A

Subjects
Climate Action, expert opinion, GPS, habitat suitability, habitat type, habitat use, IUCN, mammals, movement, selection ratio, telemetry, Ecology
Abstract

AimMacroecological studies that require habitat suitability data for many species often derive this information from expert opinion. However, expert-based information is inherently subjective and thus prone to errors. The increasing availability of GPS tracking data offers opportunities to evaluate and supplement expert-based information with detailed empirical evidence. Here, we compared expert-based habitat suitability information from the International Union for Conservation of Nature (IUCN) with habitat suitability information derived from GPS-tracking data of 1,498 individuals from 49 mammal species.LocationWorldwide.Time period1998-2021.Major taxa studiedForty-nine terrestrial mammal species.MethodsUsing GPS data, we estimated two measures of habitat suitability for each individual animal: proportional habitat use (proportion of GPS locations within a habitat type), and selection ratio (habitat use relative to its availability). For each individual we then evaluated whether the GPS-based habitat suitability measures were in agreement with the IUCN data. To that end, we calculated the probability that the ranking of empirical habitat suitability measures was in agreement with IUCN's classification into suitable, marginal and unsuitable habitat types.ResultsIUCN habitat suitability data were in accordance with the GPS data (> 95% probability of agreement) for 33 out of 49 species based on proportional habitat use estimates and for 25 out of 49 species based on selection ratios. In addition, 37 and 34 species had a > 50% probability of agreement based on proportional habitat use and selection ratios, respectively.Main conclusionsWe show how GPS-tracking data can be used to evaluate IUCN habitat suitability data. Our findings indicate that for the majority of species included in this study, it is appropriate to use IUCN habitat suitability data in macroecological studies. Furthermore, we show that GPS-tracking data can be used to identify and prioritize species and habitat types for re-evaluation of IUCN habitat suitability data.

Published
2022

5. Impacts of large herbivores on terrestrial ecosystems

Author

Pringle, Robert M., Abraham, Joel O., Anderson, T. Michael, Coverdale, Tyler C., Davies, Andrew B., Dutton, Christopher L., Gaylard, Angela, Goheen, Jacob R., Holdo, Ricardo M., Hutchinson, Matthew C., Kimuyu, Duncan M., Long, Ryan A., Subalusky, Amanda L., and Veldhuis, Michiel P.

Published
2023
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6. Effects of body size on estimation of mammalian area requirements

Author

Noonan, Michael J, Fleming, Christen H, Tucker, Marlee A, Kays, Roland, Harrison, Autumn‐Lynn, Crofoot, Margaret C, Abrahms, Briana, Alberts, Susan C, Ali, Abdullahi H, Altmann, Jeanne, Antunes, Pamela Castro, Attias, Nina, Belant, Jerrold L, Beyer, Dean E, Bidner, Laura R, Blaum, Niels, Boone, Randall B, Caillaud, Damien, Paula, Rogerio Cunha, la Torre, J Antonio, Dekker, Jasja, DePerno, Christopher S, Farhadinia, Mohammad, Fennessy, Julian, Fichtel, Claudia, Fischer, Christina, Ford, Adam, Goheen, Jacob R, Havmøller, Rasmus W, Hirsch, Ben T, Hurtado, Cindy, Isbell, Lynne A, Janssen, René, Jeltsch, Florian, Kaczensky, Petra, Kaneko, Yayoi, Kappeler, Peter, Katna, Anjan, Kauffman, Matthew, Koch, Flavia, Kulkarni, Abhijeet, LaPoint, Scott, Leimgruber, Peter, Macdonald, David W, Markham, A Catherine, McMahon, Laura, Mertes, Katherine, Moorman, Christopher E, Morato, Ronaldo G, Moßbrucker, Alexander M, Mourão, Guilherme, O'Connor, David, Oliveira‐Santos, Luiz Gustavo R, Pastorini, Jennifer, Patterson, Bruce D, Rachlow, Janet, Ranglack, Dustin H, Reid, Neil, Scantlebury, David M, Scott, Dawn M, Selva, Nuria, Sergiel, Agnieszka, Songer, Melissa, Songsasen, Nucharin, Stabach, Jared A, Stacy‐Dawes, Jenna, Swingen, Morgan B, Thompson, Jeffrey J, Ullmann, Wiebke, Vanak, Abi Tamim, Thaker, Maria, Wilson, John W, Yamazaki, Koji, Yarnell, Richard W, Zieba, Filip, Zwijacz‐Kozica, Tomasz, Fagan, William F, Mueller, Thomas, and Calabrese, Justin M

Subjects
Generic health relevance, Life on Land, Animals, Body Size, Conservation of Natural Resources, Endangered Species, Homing Behavior, Humans, Mammals, allometry, animal movement, area-based conservation, autocorrelation, home range, kernel density estimation, reserve design, scaling, alometría, autocorrelación, conservación basada en áreas, diseño de reserva, distribución local, escalamiento, estimación de densidad del núcleo, movimiento de mamíferos, 保护区设计, 动物移动, 区域保护, 家域, 异速增长, 标度, 核密度估计, 自相关, Environmental Sciences, Biological Sciences, Agricultural and Veterinary Sciences, Ecology
Abstract

Accurately quantifying species' area requirements is a prerequisite for effective area-based conservation. This typically involves collecting tracking data on species of interest and then conducting home-range analyses. Problematically, autocorrelation in tracking data can result in space needs being severely underestimated. Based on the previous work, we hypothesized the magnitude of underestimation varies with body mass, a relationship that could have serious conservation implications. To evaluate this hypothesis for terrestrial mammals, we estimated home-range areas with global positioning system (GPS) locations from 757 individuals across 61 globally distributed mammalian species with body masses ranging from 0.4 to 4000 kg. We then applied block cross-validation to quantify bias in empirical home-range estimates. Area requirements of mammals 1, meaning the scaling of the relationship changed substantially at the upper end of the mass spectrum.

Published
2020

8. Grazing herbivores reduce herbaceous biomass and fire activity across African savannas

Author

Karp, Allison Tyler, primary, Koerner, Sally E., additional, Hempson, Gareth P., additional, Abraham, Joel O., additional, Anderson, T. Michael, additional, Bond, William J., additional, Burkepile, Deron E., additional, Fillion, Elizabeth N., additional, Goheen, Jacob R., additional, Guyton, Jennifer A., additional, Kartzinel, Tyler R., additional, Kimuyu, Duncan M., additional, Mohanbabu, Neha, additional, Palmer, Todd M., additional, Porensky, Lauren M., additional, Pringle, Robert M., additional, Ritchie, Mark E., additional, Smith, Melinda D., additional, Thompson, Dave I., additional, Young, Truman P., additional, and Staver, A. Carla, additional

Published
2024
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10. Change in dominance determines herbivore effects on plant biodiversity

Author

Koerner, Sally E, Smith, Melinda D, Burkepile, Deron E, Hanan, Niall P, Avolio, Meghan L, Collins, Scott L, Knapp, Alan K, Lemoine, Nathan P, Forrestel, Elisabeth J, Eby, Stephanie, Thompson, Dave I, Aguado-Santacruz, Gerardo A, Anderson, John P, Anderson, T Michael, Angassa, Ayana, Bagchi, Sumanta, Bakker, Elisabeth S, Bastin, Gary, Baur, Lauren E, Beard, Karen H, Beever, Erik A, Bohlen, Patrick J, Boughton, Elizabeth H, Canestro, Don, Cesa, Ariela, Chaneton, Enrique, Cheng, Jimin, D’Antonio, Carla M, Deleglise, Claire, Dembélé, Fadiala, Dorrough, Josh, Eldridge, David J, Fernandez-Going, Barbara, Fernández-Lugo, Silvia, Fraser, Lauchlan H, Freedman, Bill, García-Salgado, Gonzalo, Goheen, Jacob R, Guo, Liang, Husheer, Sean, Karembé, Moussa, Knops, Johannes MH, Kraaij, Tineke, Kulmatiski, Andrew, Kytöviita, Minna-Maarit, Lezama, Felipe, Loucougaray, Gregory, Loydi, Alejandro, Milchunas, Dan G, Milton, Suzanne J, Morgan, John W, Moxham, Claire, Nehring, Kyle C, Olff, Han, Palmer, Todd M, Rebollo, Salvador, Riginos, Corinna, Risch, Anita C, Rueda, Marta, Sankaran, Mahesh, Sasaki, Takehiro, Schoenecker, Kathryn A, Schultz, Nick L, Schütz, Martin, Schwabe, Angelika, Siebert, Frances, Smit, Christian, Stahlheber, Karen A, Storm, Christian, Strong, Dustin J, Su, Jishuai, Tiruvaimozhi, Yadugiri V, Tyler, Claudia, Val, James, Vandegehuchte, Martijn L, Veblen, Kari E, Vermeire, Lance T, Ward, David, Wu, Jianshuang, Young, Truman P, Yu, Qiang, and Zelikova, Tamara Jane

Subjects
Life Below Water, Animals, Biodiversity, Desert Climate, Grassland, Herbivory, Mammals, Plants
Abstract

Herbivores alter plant biodiversity (species richness) in many of the world's ecosystems, but the magnitude and the direction of herbivore effects on biodiversity vary widely within and among ecosystems. One current theory predicts that herbivores enhance plant biodiversity at high productivity but have the opposite effect at low productivity. Yet, empirical support for the importance of site productivity as a mediator of these herbivore impacts is equivocal. Here, we synthesize data from 252 large-herbivore exclusion studies, spanning a 20-fold range in site productivity, to test an alternative hypothesis-that herbivore-induced changes in the competitive environment determine the response of plant biodiversity to herbivory irrespective of productivity. Under this hypothesis, when herbivores reduce the abundance (biomass, cover) of dominant species (for example, because the dominant plant is palatable), additional resources become available to support new species, thereby increasing biodiversity. By contrast, if herbivores promote high dominance by increasing the abundance of herbivory-resistant, unpalatable species, then resource availability for other species decreases reducing biodiversity. We show that herbivore-induced change in dominance, independent of site productivity or precipitation (a proxy for productivity), is the best predictor of herbivore effects on biodiversity in grassland and savannah sites. Given that most herbaceous ecosystems are dominated by one or a few species, altering the competitive environment via herbivores or by other means may be an effective strategy for conserving biodiversity in grasslands and savannahs globally.

Published
2018

15. A comprehensive analysis of autocorrelation and bias in home range estimation

Author

Noonan, Michael J., Tucker, Marlee A., Fleming, Christen H., Akre, Thomas S., Alberts, Susan C., Ali, Abdullahi H., Altmann, Jeanne, Antunes, Pamela Castro, Belant, Jerrold L., Beyer, Dean, Blaum, Niels, Böhning-Gaese, Katrin, Cullen, Laury, de Paula, Rogerio Cunha, Dekker, Jasja, Drescher-Lehman, Jonathan, Farwig, Nina, Fichtel, Claudia, Fischer, Christina, Ford, Adam T., Goheen, Jacob R., Janssen, René, Jeltsch, Florian, Kauffman, Matthew, Kappeler, Peter M., Koch, Flávia, LaPoint, Scott, Markham, A. Catherine, Medici, Emilia Patricia, Morato, Ronaldo G., Nathan, Ran, Oliveira-Santos, Luiz Gustavo R., Olson, Kirk A., Patterson, Bruce D., Paviolo, Agustin, Ramalho, Emiliano Esterci, Rösner, Sascha, Schabo, Dana G., Selva, Nuria, Sergiel, Agnieszka, da Silva, Marina Xavier, Spiegel, Orr, Thompson, Peter, Ullmann, Wiebke, Zięba, Filip, Zwijacz-Kozica, Tomasz, Fagan, William F., Mueller, Thomas, and Calabrese, Justin M.

Published
2019

16. Context‐dependent effects of large‐wildlife declines on small‐mammal communities in central Kenya

Author

Young, Hillary S, McCauley, Douglas J, Dirzo, Rodolfo, Goheen, Jacob R, Agwanda, Bernard, Brook, Cara, Otárola-Castillo, Erik, Ferguson, Adam W, Kinyua, Stephen N, McDonough, Molly M, Palmer, Todd M, Pringle, Robert M, Young, Truman P, and Helgen, Kristofer M

Subjects
Ecological Applications, Biological Sciences, Ecology, Environmental Management, Environmental Sciences, Life on Land, Animals, Animals, Wild, Biodiversity, Body Size, Conservation of Natural Resources, Kenya, Population Dynamics, community structure, defaunation, diversity, East Africa, environmental gradients, exclosure experiment, land-use change, species richness, Agricultural and Veterinary Sciences, Agricultural, veterinary and food sciences, Biological sciences, Environmental sciences
Abstract

Many species of large wildlife have declined drastically worldwide. These reductions often lead to profound shifts in the ecology of entire communities and ecosystems. However, the effects of these large-wildlife declines on other taxa likely hinge upon both underlying abiotic properties of these systems and on the types of secondary anthropogenic changes associated with wildlife loss, making impacts difficult to predict. To better understand how these important contextual factors determine the consequences of large-wildlife declines on other animals in a community, we examined the effects of three common forms of large-wildlife loss (removal without replacement [using fences], removal followed by replacement with domestic stock, and removal accompanied by crop agricultural use) on small-mammal abundance, diversity, and community composition, in landscapes that varied in several abiotic attributes (rainfall, soil fertility, land-use intensity) in central Kenya. We found that small-mammal communities were indeed heavily impacted by all forms of large-wildlife decline, showing, on average: (1) higher densities, (2) lower species richness per site, and (3) different species assemblages in sites from which large wildlife were removed. However, the nature and magnitude of these effects were strongly context dependent. Rainfall, type of land-use change, and the interaction of these two factors were key predictors of both the magnitude and type of responses of small mammals. The strongest effects, particularly abundance responses, tended to be observed in low-rainfall areas. Whereas isolated wildlife removal primarily led to increased small-mammal abundance, wildlife removal associated with secondary uses (agriculture, domestic stock) had much more variable effects on abundance and stronger impacts on diversity and composition. Collectively, these results (1) highlight the importance of context in determining the impacts of large-wildlife decline on small-mammal communities, (2) emphasize the challenges in extrapolating results from controlled experimental studies to predict the effects of wildlife declines that are accompanied by secondary land-uses, and (3) suggest that, because of the context-dependent nature of the responses to large-wildlife decline, large-wildlife status alone cannot be reliably used to predict small-mammal community changes.

Published
2015

17. Spatiotemporal variation in the gut microbiomes of co‐occurring wild rodent species.

Author

Brown, Bianca R. P., Khasoha, Leo M., Lokeny, Peter, Jakopak, Rhiannon P., Reed, Courtney G., Dyck, Marissa, Wambua, Alois, Newsome, Seth D., Palmer, Todd M., Pringle, Robert M., Goheen, Jacob R., and Kartzinel, Tyler R.

Subjects
BIOMES, GUT microbiome, SPECIES, MAMMAL diversity, RODENTS, LIFE history theory
Abstract

Mammalian gut microbiomes differ within and among hosts. Hosts that occupy a broad range of environments may exhibit greater spatiotemporal variation in their microbiome than those constrained as specialists to narrower subsets of resources or habitats. This can occur if widespread host encounter a variety of ecological conditions that act to diversify their gut microbiomes and/or if generalized host species tend to form large populations that promote sharing and maintenance of diverse microbes. We studied spatiotemporal variation in the gut microbiomes of three co‐occurring rodent species across an environmental gradient in a Kenyan savanna. We hypothesized: (1) the taxonomic, phylogenetic, and functional compositions of gut microbiomes as predicted using the Phylogenetic Investigation of Communities by Reconstruction of Unobserved States (PICRUSt) differ significantly among host species; (2) microbiome richness increases with population size for all host species; and (3) host species exhibit different levels of seasonal change in their gut microbiomes, reflecting different sensitivities to the environment. We evaluated changes in gut microbiome composition according to host species identity, site, and host population size using three years of capture–mark–recapture data and 351 microbiome samples. Host species differed significantly in microbiome composition, though the two species with more specialized diets and higher demographic sensitivities showed only slightly greater microbiome variability than those of a widespread dietary generalist. Total microbiome richness increased significantly with host population size for all species, but only one of the more specialized species also exhibited greater individual‐level microbiome richness in large populations. Across co‐occurring rodent species with diverse diets and life histories, large host population sizes were associated both with greater population‐level microbiome richness (sampling effects) and turnover in the relative abundance of bacterial taxa (environmental effects), but there was no consistent pattern for individual‐level richness (individual specialization). Together, our results show that maintenance of large host populations contributes to the maintenance of gut microbiome diversity in wild mammals. [ABSTRACT FROM AUTHOR]

Published
2024
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23. Moving in the Anthropocene : Global reductions in terrestrial mammalian movements

Author

Tucker, Marlee A., Böhning-Gaese, Katrin, Fagan, William F., Fryxell, John M., Van Moorter, Bram, Alberts, Susan C., Ali, Abdullahi H., Allen, Andrew M., Attias, Nina, Avgar, Tal, Bartlam-Brooks, Hattie, Bayarbaatar, Buuveibaatar, Belant, Jerrold L., Bertassoni, Alessandra, Beyer, Dean, Bidner, Laura, van Beest, Floris M., Blake, Stephen, Blaum, Niels, Bracis, Chloe, Brown, Danielle, de Bruyn, P. J. Nico, Cagnacci, Francesca, Calabrese, Justin M., Camilo-Alves, Constança, Chamaillé-Jammes, Simon, Chiaradia, Andre, Davidson, Sarah C., Dennis, Todd, DeStefano, Stephen, Diefenbach, Duane, Douglas-Hamilton, Iain, Fennessy, Julian, Fichtel, Claudia, Fiedler, Wolfgang, Fischer, Christina, Fischhoff, Ilya, Fleming, Christen H., Ford, Adam T., Fritz, Susanne A., Gehr, Benedikt, Goheen, Jacob R., Gurarie, Eliezer, Hebblewhite, Mark, Heurich, Marco, Hewison, A. J. Mark, Hof, Christian, Hurme, Edward, Isbell, Lynne A., Janssen, René, Jeltsch, Florian, Kaczensky, Petra, Kane, Adam, Kappeler, Peter M., Kauffman, Matthew, Kays, Roland, Kimuyu, Duncan, Koch, Flavia, Kranstauber, Bart, LaPoint, Scott, Leimgruber, Peter, Linnell, John D. C., López-López, Pascual, Markham, A. Catherine, Mattisson, Jenny, Medici, Emilia Patricia, Mellone, Ugo, Merrill, Evelyn, de Miranda Mourão, Guilherme, Morato, Ronaldo G., Morellet, Nicolas, Morrison, Thomas A., Díaz-Muñoz, Samuel L., Mysterud, Atle, Nandintsetseg, Dejid, Nathan, Ran, Niamir, Aidin, Odden, John, O’Hara, Robert B., Oliveira-Santos, Luiz Gustavo R., Olson, Kirk A., Patterson, Bruce D., de Paula, Rogerio Cunha, Pedrotti, Luca, Reineking, Björn, Rimmler, Martin, Rogers, Tracey L., Rolandsen, Christer Moe, Rosenberry, Christopher S., Rubenstein, Daniel I., Safi, Kamran, Saïd, Sonia, Sapir, Nir, Sawyer, Hall, Schmidt, Niels Martin, Selva, Nuria, Sergiel, Agnieszka, Shiilegdamba, Enkhtuvshin, Silva, João Paulo, Singh, Navinder, Solberg, Erling J., Spiegel, Orr, Strand, Olav, Sundaresan, Siva, Ullmann, Wiebke, Voigt, Ulrich, Wall, Jake, Wattles, David, Wikelski, Martin, Wilmers, Christopher C., Wilson, John W., Wittemyer, George, Zięba, Filip, Zwijacz-Kozica, Tomasz, and Mueller, Thomas

Published
2018

35. Behavioral responses of terrestrial mammals to COVID-19 lockdowns

Author

Tucker, Marlee A., primary, Schipper, Aafke M., additional, Adams, Tempe S. F., additional, Attias, Nina, additional, Avgar, Tal, additional, Babic, Natarsha L., additional, Barker, Kristin J., additional, Bastille-Rousseau, Guillaume, additional, Behr, Dominik M., additional, Belant, Jerrold L., additional, Beyer, Dean E., additional, Blaum, Niels, additional, Blount, J. David, additional, Bockmühl, Dirk, additional, Pires Boulhosa, Ricardo Luiz, additional, Brown, Michael B., additional, Buuveibaatar, Bayarbaatar, additional, Cagnacci, Francesca, additional, Calabrese, Justin M., additional, Černe, Rok, additional, Chamaillé-Jammes, Simon, additional, Chan, Aung Nyein, additional, Chase, Michael J., additional, Chaval, Yannick, additional, Chenaux-Ibrahim, Yvette, additional, Cherry, Seth G., additional, Ćirović, Duško, additional, Çoban, Emrah, additional, Cole, Eric K., additional, Conlee, Laura, additional, Courtemanch, Alyson, additional, Cozzi, Gabriele, additional, Davidson, Sarah C., additional, DeBloois, Darren, additional, Dejid, Nandintsetseg, additional, DeNicola, Vickie, additional, Desbiez, Arnaud L. J., additional, Douglas-Hamilton, Iain, additional, Drake, David, additional, Egan, Michael, additional, Eikelboom, Jasper A.J., additional, Fagan, William F., additional, Farmer, Morgan J., additional, Fennessy, Julian, additional, Finnegan, Shannon P., additional, Fleming, Christen H., additional, Fournier, Bonnie, additional, Fowler, Nicholas L., additional, Gantchoff, Mariela G., additional, Garnier, Alexandre, additional, Gehr, Benedikt, additional, Geremia, Chris, additional, Goheen, Jacob R., additional, Hauptfleisch, Morgan L., additional, Hebblewhite, Mark, additional, Heim, Morten, additional, Hertel, Anne G., additional, Heurich, Marco, additional, Hewison, A. J. Mark, additional, Hodson, James, additional, Hoffman, Nicholas, additional, Hopcraft, J. Grant C., additional, Huber, Djuro, additional, Isaac, Edmund J., additional, Janik, Karolina, additional, Ježek, Miloš, additional, Johansson, Örjan, additional, Jordan, Neil R., additional, Kaczensky, Petra, additional, Kamaru, Douglas N., additional, Kauffman, Matthew J., additional, Kautz, Todd M., additional, Kays, Roland, additional, Kelly, Allicia P., additional, Kindberg, Jonas, additional, Krofel, Miha, additional, Kusak, Josip, additional, Lamb, Clayton T., additional, LaSharr, Tayler N., additional, Leimgruber, Peter, additional, Leitner, Horst, additional, Lierz, Michael, additional, Linnell, John D.C., additional, Lkhagvaja, Purevjav, additional, Long, Ryan A., additional, López-Bao, José Vicente, additional, Loretto, Matthias-Claudio, additional, Marchand, Pascal, additional, Martin, Hans, additional, Martinez, Lindsay A., additional, McBride, Roy T., additional, McLaren, Ashley A.D., additional, Meisingset, Erling, additional, Melzheimer, Joerg, additional, Merrill, Evelyn H., additional, Middleton, Arthur D., additional, Monteith, Kevin L., additional, Moore, Seth A., additional, Van Moorter, Bram, additional, Morellet, Nicolas, additional, Morrison, Thomas, additional, Müller, Rebekka, additional, Mysterud, Atle, additional, Noonan, Michael J, additional, O’Connor, David, additional, Olson, Daniel, additional, Olson, Kirk A., additional, Ortega, Anna C., additional, Ossi, Federico, additional, Panzacchi, Manuela, additional, Patchett, Robert, additional, Patterson, Brent R., additional, de Paula, Rogerio Cunha, additional, Payne, John, additional, Peters, Wibke, additional, Petroelje, Tyler R., additional, Pitcher, Benjamin J., additional, Pokorny, Boštjan, additional, Poole, Kim, additional, Potočnik, Hubert, additional, Poulin, Marie-Pier, additional, Pringle, Robert M., additional, Prins, Herbert H.T., additional, Ranc, Nathan, additional, Reljić, Slaven, additional, Robb, Benjamin, additional, Röder, Ralf, additional, Rolandsen, Christer M., additional, Rutz, Christian, additional, Salemgareyev, Albert R., additional, Samelius, Gustaf, additional, Sayine-Crawford, Heather, additional, Schooler, Sarah, additional, Şekercioğlu, Çağan H., additional, Selva, Nuria, additional, Semenzato, Paola, additional, Sergiel, Agnieszka, additional, Sharma, Koustubh, additional, Shawler, Avery L., additional, Signer, Johannes, additional, Silovský, Václav, additional, Silva, João Paulo, additional, Simon, Richard, additional, Smiley, Rachel A., additional, Smith, Douglas W., additional, Solberg, Erling J., additional, Ellis-Soto, Diego, additional, Spiegel, Orr, additional, Stabach, Jared, additional, Stacy-Dawes, Jenna, additional, Stahler, Daniel R., additional, Stephenson, John, additional, Stewart, Cheyenne, additional, Strand, Olav, additional, Sunde, Peter, additional, Svoboda, Nathan J., additional, Swart, Jonathan, additional, Thompson, Jeffrey J., additional, Toal, Katrina L., additional, Uiseb, Kenneth, additional, VanAcker, Meredith C., additional, Velilla, Marianela, additional, Verzuh, Tana L., additional, Wachter, Bettina, additional, Wagler, Brittany L., additional, Whittington, Jesse, additional, Wikelski, Martin, additional, Wilmers, Christopher C., additional, Wittemyer, George, additional, Young, Julie K., additional, Zięba, Filip, additional, Zwijacz-Kozica, Tomasz, additional, Huijbregts, Mark A. J., additional, and Mueller, Thomas, additional

Published
2023
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42. Disruption of an ant-plant mutualism shapes interactions between lions and their primary prey.

Author

Kamaru, Douglas N., Palmer, Todd M., Riginos, Corinna, Ford, Adam T., Belnap, Jayne, Chira, Robert M., Githaiga, John M., Gituku, Benard C., Hays, Brandon R., Kavwele, Cyrus M., Kibungei, Alfred K., Lamb, Clayton T., Maiyo, Nelly J., Milligan, Patrick D., Mutisya, Samuel, NgÕweno, Caroline C., Ogutu, Michael, Pietrek, Alejandro G., Wildt, Brendon T., and Goheen, Jacob R.

Published
2024
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43. Behavioral responses of terrestrial mammals to COVID-19 lockdowns

Author

Tucker, Marlee A., Schipper, Aafke M., Adams, Tempe S. F., Attias, Nina, Avgar, Tal, Babic, Natarsha L., Barker, Kristin J., Bastille-Rousseau, Guillaume, Behr, Dominik M., Belant, Jerrold L., Beyer, Dean E., Blaum, Niels, Blount, J. David, Bockmühl, Dirk, Pires Boulhosa, Ricardo Luiz, Brown, Michael B., Buuveibaatar, Bayarbaatar, Cagnacci, Francesca, Calabrese, Justin M., Černe, Rok, Chamaillé-Jammes, Simon, Chan, Aung Nyein, Chase, Michael J., Chaval, Yannick, Chenaux-Ibrahim, Yvette, Cherry, Seth G., Ćirović, Duško, Çoban, Emrah, Cole, Eric K., Conlee, Laura, Courtemanch, Alyson, Cozzi, Gabriele, Davidson, Sarah C., DeBloois, Darren, Dejid, Nandintsetseg, DeNicola, Vickie, Desbiez, Arnaud L. J., Douglas-Hamilton, Iain, Drake, David, Egan, Michael, Eikelboom, Jasper A.J., Fagan, William F., Farmer, Morgan J., Fennessy, Julian, Finnegan, Shannon P., Fleming, Christen H., Fournier, Bonnie, Fowler, Nicholas L., Gantchoff, Mariela G., Garnier, Alexandre, Gehr, Benedikt, Geremia, Chris, Goheen, Jacob R., Hauptfleisch, Morgan L., Hebblewhite, Mark, Heim, Morten, Hertel, Anne G., Heurich, Marco, Hewison, A. J. Mark, Hodson, James, Hoffman, Nicholas, Hopcraft, J. Grant C., Huber, Djuro, Isaac, Edmund J., Janik, Karolina, Ježek, Miloš, Johansson, Örjan, Jordan, Neil R., Kaczensky, Petra, Kamaru, Douglas N., Kauffman, Matthew J., Kautz, Todd M., Kays, Roland, Kelly, Allicia P., Kindberg, Jonas, Krofel, Miha, Kusak, Josip, Lamb, Clayton T., LaSharr, Tayler N., Leimgruber, Peter, Leitner, Horst, Lierz, Michael, Linnell, John D.C., Lkhagvaja, Purevjav, Long, Ryan A., López-Bao, José Vicente, Loretto, Matthias-Claudio, Marchand, Pascal, Martin, Hans, Martinez, Lindsay A., McBride, Roy T., McLaren, Ashley A.D., Meisingset, Erling, Melzheimer, Joerg, Merrill, Evelyn H., Middleton, Arthur D., Monteith, Kevin L., Moore, Seth A., Van Moorter, Bram, Morellet, Nicolas, Morrison, Thomas, Müller, Rebekka, Mysterud, Atle, Noonan, Michael J, O’Connor, David, Olson, Daniel, Olson, Kirk A., Ortega, Anna C., Ossi, Federico, Panzacchi, Manuela, Patchett, Robert, Patterson, Brent R., de Paula, Rogerio Cunha, Payne, John, Peters, Wibke, Petroelje, Tyler R., Pitcher, Benjamin J., Pokorny, Boštjan, Poole, Kim, Potočnik, Hubert, Poulin, Marie-Pier, Pringle, Robert M., Prins, Herbert H.T., Ranc, Nathan, Reljić, Slaven, Robb, Benjamin, Röder, Ralf, Rolandsen, Christer M., Rutz, Christian, Salemgareyev, Albert R., Samelius, Gustaf, Sayine-Crawford, Heather, Schooler, Sarah, Şekercioğlu, Çağan H., Selva, Nuria, Semenzato, Paola, Sergiel, Agnieszka, Sharma, Koustubh, Shawler, Avery L., Signer, Johannes, Silovský, Václav, Silva, João Paulo, Simon, Richard, Smiley, Rachel A., Smith, Douglas W., Solberg, Erling J., Ellis-Soto, Diego, Spiegel, Orr, Stabach, Jared, Stacy-Dawes, Jenna, Stahler, Daniel R., Stephenson, John, Stewart, Cheyenne, Strand, Olav, Sunde, Peter, Svoboda, Nathan J., Swart, Jonathan, Thompson, Jeffrey J., Toal, Katrina L., Uiseb, Kenneth, VanAcker, Meredith C., Velilla, Marianela, Verzuh, Tana L., Wachter, Bettina, Wagler, Brittany L., Whittington, Jesse, Wikelski, Martin, Wilmers, Christopher C., Wittemyer, George, Young, Julie K., Zięba, Filip, Zwijacz-Kozica, Tomasz, Huijbregts, Mark A. J., Mueller, Thomas, National Geographic Society, University of St Andrews. School of Biology, University of St Andrews. Centre for Biological Diversity, University of St Andrews. Institute of Behavioural and Neural Sciences, and University of St Andrews. Centre for Social Learning & Cognitive Evolution

Subjects
MCC, QL, Settore BIO/07 - ECOLOGIA, DAS, QL Zoology, AC
Abstract

Funding: This article is a contribution of the COVID-19 Bio-Logging Initiative, which is funded in part by the Gordon and Betty Moore Foundation (GBMF9881) and the National Geographic Society (NGS-82515R-20) (both grants to C.R.). COVID-19 lockdowns in early 2020 reduced human mobility, providing an opportunity to disentangle its effects on animals from those of landscape modifications. Using GPS data, we compared movements and road avoidance of 2300 terrestrial mammals (43 species) during the lockdowns to the same period in 2019. Individual responses were variable with no change in average movements or road avoidance behavior, likely due to variable lockdown conditions. However, under strict lockdowns 10-day 95th percentile displacements increased by 73%, suggesting increased landscape permeability. Animals’ 1-hour 95th percentile displacements declined by 12% and animals were 36% closer to roads in areas of high human footprint, indicating reduced avoidance during lockdowns. Overall, lockdowns rapidly altered some spatial behaviors, highlighting variable but substantial impacts of human mobility on wildlife worldwide. Postprint

Published
2023

49. Diet selection, commonness, and rarity in a pair of smooth-toothed pocket gophers.

Author

Brito, Brittany T, Bjornlie, Nichole L, Carling, Matthew D, and Goheen, Jacob R

Subjects
PATH analysis (Statistics), DIET, NULL hypothesis, SPECIES distribution, COMPETITION (Biology), POLYCHLORINATED biphenyls
Abstract

Understanding the determinants of species rarity is a perennial challenge for ecologists and conservation biologists. In addition to resource specialization, competitive interactions may limit the abundance and distribution of species, thereby accentuating rarity. However, resource partitioning can reduce or altogether offset such competitive effects, and thus permit species to thrive alongside more common, widespread competitors within a narrow range of environmental conditions. In south-central Wyoming, the Wyoming Pocket Gopher (Thomomys clusius) is restricted to areas dominated by Gardner's Saltbush (Atriplex gardneri); it inhabits a geographic range that is entirely encompassed by a relatively abundant and widespread congener (T. talpoides , the Northern Pocket Gopher). However, the consumer–resource dynamics underlying the relationships among Wyoming pocket gophers, northern pocket gophers, and Gardner's Saltbush are poorly understood. We assessed one dimension of consumer–resource interactions—diet selection—between Wyoming pocket gophers, northern pocket gophers, and Gardner's Saltbush, using a combination of path analysis, DNA metabarcoding, and cafeteria-style feeding experiments. We rejected the null hypothesis that Wyoming pocket gophers and Gardner's Saltbush co-occur solely because they require similar soil conditions. Although we could not distinguish between obligate and facultative specialization by Wyoming pocket gophers, the checkerboard-like distributions of these two Thomomys likely reflect the outcome of selection and avoidance of Gardner's Saltbush. We suggest that Wyoming pocket gophers can persist within their small geographic range by capitalizing on Gardner's Saltbush, a halophyte that probably requires some combination of physiological, morphological, and behavioral adaptations to exploit. Low abundances, restricted geographic ranges, or both are hallmarks of rarity, each of which are shaped by diet selection and other consumer–resource interactions. Quantifying consumer–resource interactions can therefore provide a mechanistic basis for the further refinement and testing of hypotheses on the abundance and distribution of closely related species. [ABSTRACT FROM AUTHOR]

Published
2023
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