Nitrogen and phosphorus co‐limitation of tree growth in northern hardwood forests

Nutrient limitation of forest growth has been difficult to predict, and in temperate forests, long-term tests of single-nutrient versus multiple-element limitation are few. Nutrient co-limitation is the expected outcome of the ability of plants to adjust allocation to minimize limitation by any single resource. Nutrient limitation of productivity in northern hardwood forests was predicted by the Multiple Element Limitation (MEL) model to shift over time since harvest from single limitation by N to P at ~30 years and then, in mature forests, to co-limitation by N and P. Our work tested those predictions for tree growth in a fully factorial N and P addition experiment in 13 forest stands that we grouped in young (20-30 years), mid-age (40-50 years), and mature (>100 years old) age classes in New Hampshire, USA. Over 8 years of treatment, we found evidence of additive co-limitation of tree growth by N and P. We did not find evidence that limitation varied with time since disturbance. Our results suggest that processes contributing to co-limitation in these northern hardwood forests are effective across stands that vary widely in N status and are not sensitive to disturbance by forest harvest over time periods of several decades.

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Publication Details

Journal
Ecology
Published
2025-10-01
DOI
https://doi.org/10.1002/ecy.70217
Citations
1
Primary Topic
Forest ecology and management
Type
article
Field-Weighted Citation Impact
2.31

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article

Nitrogen and phosphorus co‐limitation of tree growth in northern hardwood forests

Noah M. Blumenthal, Ruth D. Yanai, M. Henry H. Stevens, Shinjini Goswami et al.
1 citations
Ecology
Forest ecology and management
2.31
article

Nitrogen and phosphorus co‐limitation of tree growth in northern hardwood forests

Noah M. Blumenthal, Ruth D. Yanai, M. Henry H. Stevens, Shinjini Goswami, Timothy J. Fahey, Melany C. Fisk
article en
1 citations

Abstract

Nutrient limitation of forest growth has been difficult to predict, and in temperate forests, long-term tests of single-nutrient versus multiple-element limitation are few. Nutrient co-limitation is the expected outcome of the ability of plants to adjust allocation to minimize limitation by any single resource. Nutrient limitation of productivity in northern hardwood forests was predicted by the Multiple Element Limitation (MEL) model to shift over time since harvest from single limitation by N to P at ~30 years and then, in mature forests, to co-limitation by N and P. Our work tested those predictions for tree growth in a fully factorial N and P addition experiment in 13 forest stands that we grouped in young (20-30 years), mid-age (40-50 years), and mature (>100 years old) age classes in New Hampshire, USA. Over 8 years of treatment, we found evidence of additive co-limitation of tree growth by N and P. We did not find evidence that limitation varied with time since disturbance. Our results suggest that processes contributing to co-limitation in these northern hardwood forests are effective across stands that vary widely in N status and are not sensitive to disturbance by forest harvest over time periods of several decades.

EcologyVol. 106(10)
Purchase College (US), SUNY College of Environmental Science and Forestry (US), Lees McRae College (US), Cornell University (US), Louisiana Department of Natural Resources (US), Miami University (US)
National Science Foundation, U.S. Department of Agriculture, National Institute of Food and Agriculture, U.S. Forest Service, Northern Research Station
Openalex Percentile: Top 10%
Forest ecology and management
2.31
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