Multiple Community Properties Drive Ecosystem Resistance and Resilience to Extreme Climate Events Across Mesic Grasslands

Ecosystem resistance and resilience to extreme climate events is impacted by community properties, including biodiversity. However, the relative importance of species richness, evenness and dominance is debated and is further modulated by global change factors such as nutrient addition. Using nearly 40 years of data from naturally-assembled plant communities at three Long-Term Ecological Research sites, we found that while species richness is important for resistance to extreme dry events, dominance is important for resistance to extreme wet events and evenness is important for resilience under ambient (unfertilized) conditions. Furthermore, nutrient addition alters resistance and resilience indirectly by reducing species richness and increasing dominance. Species richness and dominance are also directly reduced by extreme climate events, which may erode resistance and resilience to future events. Our results show that species richness, dominance and evenness shape ecosystem stability under climate extremes and that fertilization fundamentally modifies biodiversity-stability relationships in mesic grasslands.

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Publication Details

Journal
Ecology Letters
Published
2026-04-01
DOI
https://doi.org/10.1111/ele.70380
Primary Topic
Ecosystem dynamics and resilience
Type
article
Field-Weighted Citation Impact
0.00

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article

Multiple Community Properties Drive Ecosystem Resistance and Resilience to Extreme Climate Events Across Mesic Grasslands

Mary C. Linabury, Marissa Zaricor, Seraina L. Cappelli, Matthew A. Nieland et al.
Ecology Letters
Ecosystem dynamics and resilience
article

Multiple Community Properties Drive Ecosystem Resistance and Resilience to Extreme Climate Events Across Mesic Grasslands

Mary C. Linabury, Marissa Zaricor, Seraina L. Cappelli, Matthew A. Nieland, Max M. Zaret, Caitlin M. Broderick, Rosalie S. Terry, Moriah L. Young, Ashley L. Darst, Maya J. Parker‐Smith, Joshua A. Ajowele, Rachael R. Brenneman, Nameer R. Baker, Maowei Liang, Smriti Pehim Limbu
article en

Abstract

Ecosystem resistance and resilience to extreme climate events is impacted by community properties, including biodiversity. However, the relative importance of species richness, evenness and dominance is debated and is further modulated by global change factors such as nutrient addition. Using nearly 40 years of data from naturally-assembled plant communities at three Long-Term Ecological Research sites, we found that while species richness is important for resistance to extreme dry events, dominance is important for resistance to extreme wet events and evenness is important for resilience under ambient (unfertilized) conditions. Furthermore, nutrient addition alters resistance and resilience indirectly by reducing species richness and increasing dominance. Species richness and dominance are also directly reduced by extreme climate events, which may erode resistance and resilience to future events. Our results show that species richness, dominance and evenness shape ecosystem stability under climate extremes and that fertilization fundamentally modifies biodiversity-stability relationships in mesic grasslands.

Ecology LettersVol. 29(4)
Dartmouth College (US), University of Minnesota (US), University of North Carolina at Greensboro (US), Kansas State University (US), Denison University (US), University of Massachusetts Amherst (US), Arizona State University (US), Michigan State University (US), Bethel University (US), Colorado State University (US)
National Science Foundation, Michigan State University, Minnesota Environment and Natural Resources Trust Fund, Legislative-Citizen Commission on Minnesota Resources, Schweizerischer Nationalfonds zur Förderung der Wissenschaftlichen Forschung, National Institute of Food and Agriculture, College of Engineering, Michigan State University, U.S. Forest Service, College of Natural Science, Michigan State University, Division of Integrative Organismal Systems, Division of Environmental Biology, National Science Foundation Graduate Research Fellowship Program
Climate action
Openalex Percentile: Top 16%
Ecosystem dynamics and resilience
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