Soil age and soil phosphate content shape microarthropod communities of Dutch forest ecosystems

Soil microarthropods, particularly mites, are key contributors to the decomposition of plant litter and nutrient cycling in forest ecosystems, where they can reach high levels of biodiversity. However, their diversity can be impacted by soil disturbances such as soil compaction or organic matter removal and by phosphorus limitation, driven by nitrogen (N) deposition. This study compares microarthropod communities across forest locations differing in soil age and soil phosphate levels, using a trait-based approach focused on the species' feeding guild and body size. We compared 3 old forest soils, 19 young forest soils, and 10 old hedgerow soils. The old hedgerow soils resembled old forest soils in age, but have higher P-availability, allowing us to disentangle these effects. We hypothesized that older soils, with minimal disturbance, will support higher species richness due to their poor colonization abilities. Our results show that older soils have indeed a higher microarthropods species richness than young soils. Greatest differences in the species richness and abundance were observed in (herbo)fungivorous grazers, a group of mites essential for decomposition. Consequently, young forest soils are expected to exhibit a less efficient decomposition process. The higher P-availability in old hedgerow soils likely explains their greater richness of herbivorous grazers and the higher abundance of larger mite species, by creating a more efficient trophic transfer that supports larger bodied consumers. Our findings indicate that differences in body size and feeding guild correspond to differences across forest soils in terms of age and P-availability of forest soils. • The species richness of Acari is linked with soil age with older soils having more species. • Young forest soils particularly lack (herbo)fungivorous grazer mites that have a vital role in the decomposition process. • Higher P-content in hedgerows is associated with a higher species richness of herbivorous mites and a higher density of larger mite taxa.

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Publication Details

Journal
Applied Soil Ecology
Published
2025-02-05
DOI
https://doi.org/10.1016/j.apsoil.2025.105918
Primary Topic
Forest Ecology and Biodiversity Studies
Type
article
Field-Weighted Citation Impact
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article

Soil age and soil phosphate content shape microarthropod communities of Dutch forest ecosystems

H. Siepel, Wilco C. E. P. Verberk, Marie-Charlott Petersdorf, Joren Bruggink
Applied Soil Ecology
Forest Ecology and Biodiversity Studies
article

Soil age and soil phosphate content shape microarthropod communities of Dutch forest ecosystems

H. Siepel, Wilco C. E. P. Verberk, Marie-Charlott Petersdorf, Joren Bruggink
article en

Abstract

Soil microarthropods, particularly mites, are key contributors to the decomposition of plant litter and nutrient cycling in forest ecosystems, where they can reach high levels of biodiversity. However, their diversity can be impacted by soil disturbances such as soil compaction or organic matter removal and by phosphorus limitation, driven by nitrogen (N) deposition. This study compares microarthropod communities across forest locations differing in soil age and soil phosphate levels, using a trait-based approach focused on the species' feeding guild and body size. We compared 3 old forest soils, 19 young forest soils, and 10 old hedgerow soils. The old hedgerow soils resembled old forest soils in age, but have higher P-availability, allowing us to disentangle these effects. We hypothesized that older soils, with minimal disturbance, will support higher species richness due to their poor colonization abilities. Our results show that older soils have indeed a higher microarthropods species richness than young soils. Greatest differences in the species richness and abundance were observed in (herbo)fungivorous grazers, a group of mites essential for decomposition. Consequently, young forest soils are expected to exhibit a less efficient decomposition process. The higher P-availability in old hedgerow soils likely explains their greater richness of herbivorous grazers and the higher abundance of larger mite species, by creating a more efficient trophic transfer that supports larger bodied consumers. Our findings indicate that differences in body size and feeding guild correspond to differences across forest soils in terms of age and P-availability of forest soils. • The species richness of Acari is linked with soil age with older soils having more species. • Young forest soils particularly lack (herbo)fungivorous grazer mites that have a vital role in the decomposition process. • Higher P-content in hedgerows is associated with a higher species richness of herbivorous mites and a higher density of larger mite taxa.

Applied Soil EcologyVol. 207
Radboud University Nijmegen (NL), Wageningen University & Research (NL)
Life in Land
Openalex Percentile: Top 98%
Forest Ecology and Biodiversity Studies
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