Abstract
The legacy of ancient human practices can affect the diversity and structure of modern ecosystems. Here, we examined how prehistoric refuse dumps (“middens”) impacted soil chemistry and plant community composition in forests along the Chesapeake Bay by collecting vegetational and soil nutrient data. The centuries- to millennia-old shell middens had elevated soil nutrients compared to adjacent sites, greater vegetative cover, especially of herb and grass species, and higher species richness. Not only are middens important archaeological resources, they also offer a remarkable opportunity to test ecological hypotheses about nutrient addition over very long time scales. We found no evidence, for example, that elevated nutrients enhanced invasion by non-native species as predicted by the fluctuating resource hypothesis. However, we did find that elevated nutrients shifted community structure from woody species to herbaceous species, as predicted by the structural carbon-nutrient hypothesis. These results highlight the long-lasting effects that humans can have on abiotic and biotic properties of the natural environment, and suggest the potential for modern patterns of species’ distributions and abundances to reflect ancient human activities.
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Acknowledgments
The Smithsonian Institution/SERC supported this work with an internship to D. Weller and a fellowship to S. C. Cook-Patton. Funds from the National Museum of Natural History Small Grant (Rick) and the National Geographic Society (Rick) supported radiocarbon dating. We also thank Tuck Hines, Robert Aguilar, Allison Everett, Midge Kramer and researchers in the SERC Crab Lab who provided logistical support and advice.
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Cook-Patton, S.C., Weller, D., Rick, T.C. et al. Ancient experiments: forest biodiversity and soil nutrients enhanced by Native American middens. Landscape Ecol 29, 979–987 (2014). https://doi.org/10.1007/s10980-014-0033-z
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DOI: https://doi.org/10.1007/s10980-014-0033-z