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Browning of boreal freshwaters coupled to carbon-iron interactions along the aquatic continuum

The color of freshwaters, often measured as absorbance, influences a number of ecosystem services including biodiversity, fish production, and drinking water quality. Many countries have recently reported on increasing trends of water color in freshwaters, for which drivers are still not fully under...

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Published in:PloS one 2014-02, Vol.9 (2), p.e88104
Main Authors: Weyhenmeyer, Gesa A, Prairie, Yves T, Tranvik, Lars J
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description The color of freshwaters, often measured as absorbance, influences a number of ecosystem services including biodiversity, fish production, and drinking water quality. Many countries have recently reported on increasing trends of water color in freshwaters, for which drivers are still not fully understood. We show here with more than 58000 water samples from the boreal and hemiboreal region of Sweden and Canada that absorbance of filtered water (a₄₂₀) co-varied with dissolved organic carbon (DOC) concentrations (R²  = 0.85, P
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Many countries have recently reported on increasing trends of water color in freshwaters, for which drivers are still not fully understood. We show here with more than 58000 water samples from the boreal and hemiboreal region of Sweden and Canada that absorbance of filtered water (a₄₂₀) co-varied with dissolved organic carbon (DOC) concentrations (R²  = 0.85, P&lt;0.0001), but that a₄₂₀ relative to DOC is increased by the presence of iron (Fe). We found that concentrations of Fe significantly declined with increasing water retention in the landscape, resulting in significantly lower Fe concentrations in lakes compared to running waters. The Fe loss along the aquatic continuum corresponded to a proportional loss in a₄₂₀, suggesting a tight biogeochemical coupling between colored dissolved organic matter and Fe. Since water is being flushed at increasing rates due to enhanced runoff in the studied regions, diminished loss of Fe along the aquatic continuum may be one reason for observed trends in a₄₂₀, and in particular in a₄₂₀/DOC increases. 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Since water is being flushed at increasing rates due to enhanced runoff in the studied regions, diminished loss of Fe along the aquatic continuum may be one reason for observed trends in a₄₂₀, and in particular in a₄₂₀/DOC increases. If trends of increased Fe concentrations in freshwaters continue, water color will further increase with various effects on ecosystem services and biogeochemical cycles.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>24505396</pmid><doi>10.1371/journal.pone.0088104</doi><tpages>e88104</tpages><oa>free_for_read</oa></addata></record>
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subjects Absorbance
Aquatic sciences
Biodiversity
Biogeochemical cycles
Biology
Browning
Carbon - analysis
Chemistry
Color
Creeks & streams
Dissolved organic carbon
Dissolved organic matter
Drinking water
Earth Sciences
Ecosystem assessment
Ecosystem services
Ecosystems
Environmental Monitoring
Fresh water
Fresh Water - analysis
Geochemistry
Iron
Iron - analysis
Laboratories
Lakes
Limnology
Materials Science
Oceanography
Organic carbon
Precipitation
Respiration
Rivers
Running waters
Runoff
Trends
Water analysis
Water color
Water purification
Water quality
Water sampling
title Browning of boreal freshwaters coupled to carbon-iron interactions along the aquatic continuum
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