G.S. Casper, E. Beever, U. Gafvert, and S.M. Nadeau. 2018. Amphibian Monitoring Protocol (Version 2.0). Natural Resource Report NPS/GLKN/NRR—2018/1761. National Park Service, Great Lakes Inventory & Monitoring Network, Ashland, WI.
Erik Beever, Ph.D.
Biography
Education
Ph.D. 1999. University of Nevada, Reno. Ecology, Evolution, and Conservation Biology.
B.S. 1993. University of California, Davis. Biological Sciences.
Research Interest
Dr. Erik Beever has published over 75 articles in diverse scientific journals and in numerous subdisciplines of biology. He has performed field research on plants, soils, amphibians, birds, reptiles, fishes, and insects, as well as small, medium, and large mammals. His work has spanned salt-scrub, sagebrush-steppe, alpine, subalpine, subarctic, riparian, primary and secondary temperate and tropical forest, and coastal ecosystems of the western hemisphere. In addition to seeking to understand mechanisms of biotic responses to long-term weather patterns and variability, he has also focused on disturbance ecology and monitoring in conservation reserves, all at community to landscape scales, as well as other topics of conservation ecology, wildlife biology, and landscape ecology. He is interested in questions at the nexus of basic and applied science, especially those that also inform management and conservation efforts for species, communities, and ecosystems. He is a member of the IUCN Protected Areas Specialist Group, the IUCN Lagomorph Specialist Group, as well as The Wildlife Society, Society for Conservation Biology, American Society of Mammalogists, and Sigma Xi.
Science and Products
Date published: January 1, 2017
Status: Active Adaptive Capacity: The Linchpin for Understanding and Addressing Species Vulnerability to Climate Change Impacts
Different species have different ways of coping with changing climate conditions. Some species may move to more-favorable habitats, others may change their behavior (such as by shifting their diets), and still others may change the timing of life-cycle events (such as migration). The ability of a species to accommodate changing conditions is known as its “adaptive capacity”. Understanding the...
Contacts: Erik Beever, Ph.D.
Attribution: Climate Adaptation Science Centers
Date published: April 29, 2016
Status: Active Adaptive Capacity: the linchpin for understanding and addressing species vulnerability to climate-change impacts
When prioritizing natural resource management activities, managers need to understand how plant and animal species differ in terms of their vulnerability to variation in environmental conditions caused by climate change. Species vulnerability to climate change is controlled by (1) exposure to changing environmental conditions, (2) sensitivity to direct and indirect effects of those changing...
Contacts: Erik Beever, Ph.D., Lindsey Thurman, Ph.D.
Date published: April 11, 2016
Design, Analysis, Monitoring, and Conservation of Ecological Dynamics at Broad Scales
There is increasing recognition that the spatial context in which any ecological process or phenomenon occurs has great bearing on the outcome of that process. Since 1994, we have been working on numerous field investigations and conceptual developments to inform how ecological resources can be managed and conserved across jurisdictional boundaries and broad spatial extents. Because such...
Contacts: Erik Beever, Ph.D.
Attribution: Northern Rocky Mountain Science Center
Date published: April 11, 2016
Grazing, Ungulate, and Disturbance Ecology
We work with a diverse collection of other researchers and resource managers, at local to national and international levels, to address ways in which herbivory and grazing systems interact with the broader ecosystems in which they occur. We investigate whether long-term weather patterns may interact synergistically to affect how soils, vegetation, and other animals respond to grazing or...
Contacts: Erik Beever, Ph.D.
Attribution: Northern Rocky Mountain Science Center
Date published: April 11, 2016
Status: Active Species and Ecosystem Responses to Global Change
We work with a diverse collection of researchers, resource managers, and conservation practitioners to address the “how” and “why” questions that underlie species-and ecosystem-level responses to long-term weather patterns. Although it is more challenging, this level of more-mechanistic understanding is critical for informing climate-adaptation actions and strategies. We use a diversity of...
Contacts: Erik Beever, Ph.D.
Date published: January 1, 2012
Status: Completed Integrating Climate and Biological Data into Management Decisions for the Greater Sage-Grouse and their Habitats
Climate affects both the demographics of the Greater sage-grouse bird and the condition and long-term viability of their habitats, including sage-steppe communities. This project builds on collaboration among federal land managers, state wildlife biologists, scientists, and other organizations to create a long-term framework for implementing adaptive management for the sage-grouse. The study...
Attribution: Climate Adaptation Science Centers
Date published: January 1, 2011
Status: Completed Using a Collaborative Modeling Approach to Explore Climate and Landscape Change in the Northern Rockies and Inform Adaptive Management
Federal land managers need an adaptive management framework to accommodate changing conditions and that allows them to effectively link the appropriate science to natural resource management decision-making across jurisdictional boundaries. FRAME-SIMPPLLE is a collaborative modeling process designed to accomplish this goal by coupling the adaptive capabilities of the SIMPPLLE modeling system...
Attribution: Climate Adaptation Science Centers
Year Published: 2021
Identification of Global Priorities for New Mountain Protected and Conserved Areas
Mountain ecosystems are extremely diverse and fragile. They include astonishing biodiversity in terms of number of taxa and endemicity, and globally provide the most diverse range of ecosystem services. The world’s system of protected and conserved areas includes many outstanding areas within the earth’s mountainous landscape: about 19% of...
Jacobs, Peter; Beever, Erik A.; Carbutt, Clinton; Foggin, Marc; Juffe-Bignoli, Diego; Martin, Madeline Thomas; Orchard, Shane; Sayre, Roger
Year Published: 2020
Persist in place or shift in space? Evaluating the adaptive capacity of species to climate change
Assessing the vulnerability of species to climate change serves as the basis for climate‐adaptation planning and climate‐smart conservation, and typically involves an evaluation of exposure, sensitivity, and adaptive capacity (AC). AC is a species’ ability to cope with or adjust to changing climatic conditions, and is the least understood and most...
Thurman, Lindsey L.; Stein, Bruce; Beever, Erik A.; Foden, Wendy; Geange, Sonya; Green, Nancy; Gross, John E.; Lawrence, David J; LeDee, Olivia Erin; Olden, Julian D.; Thompson, Laura; Young, Bruce
Year Published: 2020
Context-dependent effects of livestock grazing in deserts of western North America
This chapter provides a general review of grazing disturbance by large mammalian grazers and the role of ecological context in moderating its effects, with emphasis on North American deserts. It discusses the ecological consequences of cessation of livestock grazing and present a case study from the Mojave Desert, United States of America. A...
Veblen, Kari E.; Beever, Erik A.; Pyke, David A.
Year Published: 2019
Discovery of the yellow-bellied marmot (Marmota flaviventris) in the Jemez Mountains, New Mexico: Examining competing hypotheses for range extension
The yellow-bellied marmot (Marmota flaviventris) reaches the southern edge of its geographic range in New Mexico, where it is known from the San Juan and Sangre de Cristo Mountains. We provide a synopsis of the geographic range of M. flaviventris in New Mexico and report 5 recent records from the Jemez Mountains, Los Alamos and Sandoval...
Frey, Jennifer K.; Beever, Erik A.; Hathcock, Charles D; Parmenter, Robert; Westover, Marie LAttribution: Northern Rocky Mountain Science Center, Ecosystems
Year Published: 2019
Evaluating mechanisms of plant‐mediated effects on herbivore persistence and occupancy across an ecoregion
Contemporary climate change is rapidly creating one of the greatest challenges for management and conservation during the 21st century. Mountain ecosystems, which have a high degree of spatial heterogeneity and contain numerous habitat specialists, have been identified as particularly vulnerable. We used data from multiple years across sites...
Wilkening, Jennifer L.; Cole, Evan J.; Beever, Erik A.Attribution: Northern Rocky Mountain Science Center, Ecosystems
Year Published: 2019
An integrated framework for ecological drought across riverscapes of North America
Climate change is increasing the severity and extent of extreme droughts events, posing a critical threat to freshwater ecosystems, particularly with increasing human demands for diminishing water supplies. Despite the importance of drought as a significant driver of ecological and evolutionary dynamics, current understanding of drought...
Kovach, Ryan; Dunham, Jason B.; Al-Chokhachy, Robert; Snyder, Craig; Beever, Erik A.; Pederson, Gregory T.; Lynch, Abigail; Hitt, Nathaniel P.; Konrad, Christopher P.; Jaeger, Kristin; Rea, Alan H.; Sepulveda, Adam J.; Lambert, Patrick M.; Stoker, Jason M.; Giersch, J. Joseph; Muhlfeld, Clint C.
Year Published: 2019
Social–ecological mismatches create conservation challenges in introduced species management
Introduced species can have important effects on the component species and processes of native ecosystems. However, effective introduced species management can be complicated by technical and social challenges. We identify “social–ecological mismatches” (that is, differences between the scales and functioning of interacting social and ecological...
Beever, Erik A.; Simberloff, Daniel; Crowley, Sarah L.; Al-Chokhachy, Robert; Jackson, Hazel A.; Petersen, Steven L.Attribution: Northern Rocky Mountain Science Center, Ecosystems
Year Published: 2019
Ecological consequences of anomalies in atmospheric moisture and snowpack
Although increased frequency of extreme‐weather events is one of the most secure predictions associated with contemporary climate change, effects of such events on distribution and abundance of climate‐sensitive species remain poorly understood. Montane ecosystems may be especially sensitive to extreme weather because of complex abiotic and biotic...
Johnston, Aaron; Bruggeman, Jason E.; Christophersen, Roger; Beers, Aidan; Beever, Erik A.; Ransom, Jason I.Attribution: Northern Rocky Mountain Science Center, Ecosystems
Year Published: 2019
Conservation challenges emerging from free-roaming horse management: a vexing social-ecological mismatch
Horses have been associated with human societies for millennia, and for many have come to symbolize wildness, power, resilience, and freedom. Although equids were extirpated from North America 10 000-12 000 years ago, descendants of domestic horses now roam freely in the USA and 17 other countries across six continents. In landscape-scale and...
Beever, Erik A.; Huntsinger, Lynn; Petersen, Steven L.Attribution: Northern Rocky Mountain Science Center, Ecosystems
Year Published: 2018
Change in dominance determines herbivore effects on plant biodiversity
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...
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 M. H.; Kraaij, Tineke; Kulmatiski, Andrew; Kytöviita, Minna-Maarit; Lezama, Felipe; Loucougaray, Gregory; Loydi, Alejandro; Milchunas, Daniel 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; Ward, David; Wu, Jianshuang; Young, Truman P.; Yu, Qiang; Zelikova, Tamara J.
Year Published: 2018
Change in dominance determines herbivore effects on plant biodiversity
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...
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.; Stephanie Eby; 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; Dembele, Fadiala; Dorrough, Josh; Eldridge, David J.; Fernandez-Going, Barbara; Fernández-Lugo, Silvia; Fraser, Lauchlan H.; Freedman, Bill; Garcia-Salgado, Gonzalo; Goheen, Jacob R.; Guo, Liang; Husheer, Sean; Karembé, Moussa; Knops, Johannes M. H.; Kraaij, Tineke; Kulmatiski, Andrew; Kytöviita, Minna-Maarit; Lezama, Felipe; Loucougaray, Gregory; Loydi, Alejandro; Milchunas, Daniel 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; Ward, David; Wu, Jianshuang; Young, Truman P.; Yu, Qiang; Zelikova, Tamara J.Attribution: Fort Collins Science Center, Ecosystems
Year Published: 2018
Adaptive population divergence and directional gene flow across steep elevational gradients in a climate‐sensitive mammal
The American pika is a thermally sensitive, alpine lagomorph species. Recent climate-associated population extirpations and genetic signatures of reduced population sizes range-wide indicate the viability of this species is sensitive to climate change. To test for potential adaptive responses to climate stress, we sampled pikas along two...
Waterhouse, Matthew D.; Erb, Liesl P.; Beever, Erik A.; Russello, Michael A.View Citation
Waterhouse, M.D., L.P. Erb, E.A. Beever, and M.A. Russello. 2018. Adaptive population divergence and directional gene flow across steep elevational gradients in a climate-sensitive mammal. Molecular Ecology 27(11): 2512-2528.
Pre-USGS Publications
S.K. Windels, Beever, E.A., J. Paruk, A. Nelson, L. Siegel, D. Evers, and C.C. MacNulty. 2013. Effects of water-level management on nesting success of common loons. Journal of Wildlife Management 77(8):1626-1638.
Beever, E.A. 1999. Species- and community-level responses to disturbance imposed by feral
horse grazing and other management practices. Ph.D. dissertation, University of Nevada, Reno.
Beever, E.A. and P.F. Brussard. 2000. Charismatic megafauna or exotic pest? Interactions between popular perceptions of feral horses (Equus caballus) and their management and research. Pages 413-418 In: T.P. Salmon and A.C. Crabb, editors. Proceedings of the 19th International Vertebrate Pest Conference, University of California, Davis
Dunham, J. B., B. R. Dickerson, E. Beever, R. D. Duncan, and G. L. Vinyard. 2000. Effects of food limitation and emigration on self-thinning in experimental minnow cohorts. Journal of Animal Ecology 69(6):927-934.
Beever, E.A. and P.F. Brussard. 2000. Examining ecological consequences of feral horse grazing using exclosures. Western North American Naturalist 60(3):236-254.
Beever, E.A. 2000. The roles of optimism in conservation biology. Conservation Biology 14(3):907-909.
Beever, E.A. and D.A. Pyke. 2002. Research plan for lands administered by the U.S. Department of Interior in the Interior Columbia Basin & Snake River Plateau. U.S. Geological Survey, Information and Technology Report 2002-003. 76 p.
Beever, E.A. 2002. Persistence of pikas in two low-elevation national monuments in the western United States. Park Science 21(2):23-29.
Beever, E.A., P.F. Brussard, and J. Berger. 2003. Patterns of extirpation among isolated populations of pikas (Ochotona princeps) in the Great Basin. Journal of Mammalogy 84(1):37-54.
Haig, S.M, E.A. Beever, et al. 2006. Taxonomy and listing of subspecies under the U.S. ESA: challenges for conservation and policy implementation. Conservation Biology 20(6):1584-1594
Bowen, K.D., S.D. McMahon, and E.A. Beever. 2007. Geographic distribution. Elaphe vulpina (Western Foxsnake). Herpetological Review 38(4):486
Johnson, S.E., E.L. Mudrak, E.A. Beever, S. Sanders, and D.M. Waller. 2008. Comparing power among three sampling methods for monitoring forest vegetation. Canadian Journal of Forest Research 38:143-156.
Beever, E.A., R.J. Tausch, and W.E. Thogmartin. 2008. Landscape- and local-scale responses of vegetation to removal of horse grazing from Great Basin (U.S.A.) mountain ranges. Plant Ecology 196(2):163-184.
Beever, E.A., and A.T. Smith. 2008. Ochotona princeps. In: IUCN 2010. IUCN Red List of Threatened Species. Version 2010.4
Bowen, K.D., E.A. Beever, and U.B. Gafvert. 2009. Improving the design of amphibian surveys using soil data: a case study in two wilderness areas. Natural Areas Journal 29(2):117-125.
Beever, E.A. 2009. Ecological silence of the grasslands, forests, wetlands, mountains, and seas. Conservation Biology 23(5):1320-1322.
Beever, E.A., C. Ray, P.W. Mote, and J.L. Wilkening. 2010. Testing alternative models of climate-mediated extirpations. Ecological Applications 20(1):164-178.
Bowen, K.B., and E.A. Beever. 2010. Daytime amphibian surveys at three National Lakeshores in the Western Great Lakes ecoregion. Reptiles & Amphibians 17(1):26-35.
Rodhouse, T.J., E.A. Beever, L.K. Garrett, K.M. Irvine, M. Munts, C. Ray, and M.R. Shardlow. 2010. Distribution of American pikas in a low-elevation lava landscape: conservation implications from the range periphery. Journal of Mammalogy 91(5):1287-1299.
Bowen, K.B., and E.A. Beever. 2010. Pilot amphibian monitoring at Apostle Islands, Pictured Rocks, and Sleeping Bear Dunes National Lakeshores: analysis and recommendations. NPS Natural Resource Report NPS/GLKN/NRTR–2010/360. ix + 49 pp.
Wilkening, J.L., C. Ray, E.A. Beever, and P.F. Brussard. 2011. Modeling contemporary range retraction in Great Basin pikas (Ochotona princeps) using data on microclimate and microhabitat. Quaternary International 235:77-88.
Beever, E.A., C. Ray, J.L. Wilkening, P.F. Brussard, and P.W. Mote. 2011. Contemporary climate change alters the pace and drivers of extinction. Global Change Biology 17(6):2054-2070
Beever, E.A., and C.L. Aldridge. 2011. Influences of free-roaming equids on sagebrush ecosystems, with a focus on Greater Sage-grouse. INVITED article, Studies in Avian Biology 38:273-290.
Belant, J., and Beever, E.A. 2011. Ecological consequences of climate change: Introduction. In: Ecological consequences of climate change: mechanisms, conservation, and management. CRC Press (Taylor and Francis Group).
Beever, E.A., and J. Belant. 2011. Ecological consequences of climate change: synthesis and research needs. Pages 285-294 In: Ecological consequences of climate change: mechanisms, conservation, and management. CRC Press (Taylor and Francis Group).
Beever, E.A., and J. Belant, Editors. 2011. Ecological consequences of climate change: mechanisms, conservation, and management. CRC Press (Taylor and Francis Group). xix + 314 pp.
Beever, E.A., C. Ray, J.L. Wilkening, P.W. Mote, and P.F. Brussard. 2011. Landscape-scale conservation and management of montane wildlife: contemporary climate may be changing the rules. Intermountain Journal of Science 17(1-4):41-42.
Beever, E.A., and A.T. Smith. 2011. Ochotona princeps. In: IUCN 2011. IUCN Red List of Threatened Species. Version 2011.2.
Calkins, M.T., E.A. Beever, K.G. Boykin, J.K. Frey, and M.C. Andersen. 2012. Not-so-splendid isolation: modeling climate-mediated range collapse of a montane mammal (Ochotona princeps) across numerous ecoregions. Ecography 35(9):780-791.
Ray, C., E.A. Beever, and S. Loarie. 2012. Retreat of the American pika: up the mountain or into the void? Invited chapter (pages 245-270) in : Brodie, J.F., E. Post, and D.F. Doak, editors, Wildlife conservation in a changing climate. University of Chicago Press, Chicago, IL.
Date published: August 8, 2015
Adaptive capacity of species - a fundamental component when assessing vulnerability to rapid climate change.
A new paper led by U.S. Geological Survey Ecologists Erik Beever (Northern Rocky Mountain Science Center) and Michelle Staudinger (Northeast Climate Science Center) addresses the importance of including adaptive capacity of species as a fundamental component when assessing vulnerability to rapid climate change.