Cation responses to global changes alter ecological processes in ombrotrophic systems

Abstract Ombrotrophic bogs, which store large amounts of carbon as peat, receive all their mineral nutrition through deposition. This limited nutrient input means they are particularly sensitive to local and global changes that displace vital cations. We review how acid deposition drives cation displacement (i.e. sodium, magnesium, potassium and calcium) in ombrotrophic bogs. We then synthesise the literature across scales of ecological organisation on the role of cation availability in shaping plant stoichiometry and function, community dynamics and ecosystem function. Acid deposition from industrialisation drives declines in cation concentrations in peat, and although recovery is underway, cations remain depleted in acid‐affected areas. Cation depletion could cause decreased Sphagnum spp. growth and decreased plant diversity. There is higher uncertainty in how cations contribute to ecosystem processes. Future trends will likely be dictated by climate change‐driven increases in marine deposition, which will increase cation concentrations in maritime bogs and alter ecological processes across scales. Synthesis . There is limited yet compelling evidence that cation availability is a key determinant of ecological processes across scales. We propose a research agenda to understand how past and future changes in cation availability may alter carbon cycling in bogs and explore potential management.

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Publication Details

Journal
Journal of Ecology
Published
2026-07-01
DOI
https://doi.org/10.1111/1365-2745.70392
Primary Topic
Peatlands and Wetlands Ecology
Type
article
Field-Weighted Citation Impact
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article

Cation responses to global changes alter ecological processes in ombrotrophic systems

Joshua S. Lynn, Jonathan P. Ritson, Christopher Evans, Benjamin Bell et al.
Journal of Ecology
Peatlands and Wetlands Ecology
article

Cation responses to global changes alter ecological processes in ombrotrophic systems

Joshua S. Lynn, Jonathan P. Ritson, Christopher Evans, Benjamin Bell, Peter Ryan, William Fletcher
article en

Abstract

Abstract Ombrotrophic bogs, which store large amounts of carbon as peat, receive all their mineral nutrition through deposition. This limited nutrient input means they are particularly sensitive to local and global changes that displace vital cations. We review how acid deposition drives cation displacement (i.e. sodium, magnesium, potassium and calcium) in ombrotrophic bogs. We then synthesise the literature across scales of ecological organisation on the role of cation availability in shaping plant stoichiometry and function, community dynamics and ecosystem function. Acid deposition from industrialisation drives declines in cation concentrations in peat, and although recovery is underway, cations remain depleted in acid‐affected areas. Cation depletion could cause decreased Sphagnum spp. growth and decreased plant diversity. There is higher uncertainty in how cations contribute to ecosystem processes. Future trends will likely be dictated by climate change‐driven increases in marine deposition, which will increase cation concentrations in maritime bogs and alter ecological processes across scales. Synthesis . There is limited yet compelling evidence that cation availability is a key determinant of ecological processes across scales. We propose a research agenda to understand how past and future changes in cation availability may alter carbon cycling in bogs and explore potential management.

Journal of EcologyVol. 114(7)
University of Manchester (GB), UK Centre for Ecology & Hydrology (GB)
Life below water
Openalex Percentile: Top 7%
Peatlands and Wetlands Ecology
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