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The stoichiometry of nutrient release by terrestrial herbivores and its ecosystem consequences. / Sitters, J. (Corresponding author); Bakker, E.S.; Veldhuis, M.; Veen, G.F.; Venterink, Harry Olde; Vanni, M.J.

In: Frontiers of Earth Science, Vol. 5, feart.2017.00032, 2017.

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Sitters, J. ; Bakker, E.S. ; Veldhuis, M. ; Veen, G.F. ; Venterink, Harry Olde ; Vanni, M.J. / The stoichiometry of nutrient release by terrestrial herbivores and its ecosystem consequences. In: Frontiers of Earth Science. 2017 ; Vol. 5.

BibTeX

@article{e0abec78810b4e0dbc0f608da1d8ddff,
title = "The stoichiometry of nutrient release by terrestrial herbivores and its ecosystem consequences.",
abstract = "It is widely recognized that the release of nutrients by herbivores via their waste products strongly impacts nutrient availability for autotrophs. The ratios of nitrogen (N) and phosphorus (P) recycled through herbivore release (i.e., waste N:P) are mainly determined by the stoichiometric composition of the herbivore's food (food N:P) and its body nutrient content (body N:P). Waste N:P can in turn impact autotroph nutrient limitation and productivity. Herbivore-driven nutrient recycling based on stoichiometric principles is dominated by theoretical and experimental research in freshwater systems, in particular interactions between algae and invertebrate herbivores. In terrestrial ecosystems, the impact of herbivores on nutrient cycling and availability is often limited to studying carbon (C):N and C:P ratios, while the role of terrestrial herbivores in mediating N:P ratios is also likely to influence herbivore-driven nutrient recycling. In this review, we use rules and predictions on the stoichiometry of nutrient release originating from algal-based aquatic systems to identify the factors that determine the stoichiometry of nutrient release by herbivores. We then explore how these rules can be used to understand the stoichiometry of nutrient release by terrestrial herbivores, ranging from invertebrates to mammals, and its impact on plant nutrient limitation and productivity. Future studies should focus on measuring both N and P when investigating herbivore-driven nutrient recycling in terrestrial ecosystems, while also taking the form of waste product (urine or feces) and other pathways by which herbivores change nutrients into account, to be able to quantify the impact of waste stoichiometry on plant communities.",
keywords = "international",
author = "J. Sitters and E.S. Bakker and M. Veldhuis and G.F. Veen and Venterink, {Harry Olde} and M.J. Vanni",
note = "6272, Aqe/TE; Data archiving: no data (review)",
year = "2017",
doi = "10.3389/feart.2017.00032",
language = "English",
volume = "5",
journal = "Frontiers of Earth Science",
issn = "2095-0195",
publisher = "Higher Education Press",

}

RIS

TY - JOUR

T1 - The stoichiometry of nutrient release by terrestrial herbivores and its ecosystem consequences.

AU - Sitters, J.

AU - Bakker, E.S.

AU - Veldhuis, M.

AU - Veen, G.F.

AU - Venterink, Harry Olde

AU - Vanni, M.J.

N1 - 6272, Aqe/TE; Data archiving: no data (review)

PY - 2017

Y1 - 2017

N2 - It is widely recognized that the release of nutrients by herbivores via their waste products strongly impacts nutrient availability for autotrophs. The ratios of nitrogen (N) and phosphorus (P) recycled through herbivore release (i.e., waste N:P) are mainly determined by the stoichiometric composition of the herbivore's food (food N:P) and its body nutrient content (body N:P). Waste N:P can in turn impact autotroph nutrient limitation and productivity. Herbivore-driven nutrient recycling based on stoichiometric principles is dominated by theoretical and experimental research in freshwater systems, in particular interactions between algae and invertebrate herbivores. In terrestrial ecosystems, the impact of herbivores on nutrient cycling and availability is often limited to studying carbon (C):N and C:P ratios, while the role of terrestrial herbivores in mediating N:P ratios is also likely to influence herbivore-driven nutrient recycling. In this review, we use rules and predictions on the stoichiometry of nutrient release originating from algal-based aquatic systems to identify the factors that determine the stoichiometry of nutrient release by herbivores. We then explore how these rules can be used to understand the stoichiometry of nutrient release by terrestrial herbivores, ranging from invertebrates to mammals, and its impact on plant nutrient limitation and productivity. Future studies should focus on measuring both N and P when investigating herbivore-driven nutrient recycling in terrestrial ecosystems, while also taking the form of waste product (urine or feces) and other pathways by which herbivores change nutrients into account, to be able to quantify the impact of waste stoichiometry on plant communities.

AB - It is widely recognized that the release of nutrients by herbivores via their waste products strongly impacts nutrient availability for autotrophs. The ratios of nitrogen (N) and phosphorus (P) recycled through herbivore release (i.e., waste N:P) are mainly determined by the stoichiometric composition of the herbivore's food (food N:P) and its body nutrient content (body N:P). Waste N:P can in turn impact autotroph nutrient limitation and productivity. Herbivore-driven nutrient recycling based on stoichiometric principles is dominated by theoretical and experimental research in freshwater systems, in particular interactions between algae and invertebrate herbivores. In terrestrial ecosystems, the impact of herbivores on nutrient cycling and availability is often limited to studying carbon (C):N and C:P ratios, while the role of terrestrial herbivores in mediating N:P ratios is also likely to influence herbivore-driven nutrient recycling. In this review, we use rules and predictions on the stoichiometry of nutrient release originating from algal-based aquatic systems to identify the factors that determine the stoichiometry of nutrient release by herbivores. We then explore how these rules can be used to understand the stoichiometry of nutrient release by terrestrial herbivores, ranging from invertebrates to mammals, and its impact on plant nutrient limitation and productivity. Future studies should focus on measuring both N and P when investigating herbivore-driven nutrient recycling in terrestrial ecosystems, while also taking the form of waste product (urine or feces) and other pathways by which herbivores change nutrients into account, to be able to quantify the impact of waste stoichiometry on plant communities.

KW - international

U2 - 10.3389/feart.2017.00032

DO - 10.3389/feart.2017.00032

M3 - Article

VL - 5

JO - Frontiers of Earth Science

JF - Frontiers of Earth Science

SN - 2095-0195

M1 - feart.2017.00032

ER -

ID: 4107869