Coral Reef Calculus: Nature’s Equation for Pollution Control

Coral reefs play an essential ecological role in maintaining marine water quality by naturally filtering contaminants. This study investigates the quantitative capability of coral reef ecosystems to reduce waterborne pollutants using biologically mediated processes. A systematic methodology, combining in situ observations, laboratory simulations, and analytical modeling, was adopted to determine the filtration efficiency of coral reefs. Remote sensing and photogrammetry characterized reef morphology, while microbial consortia transformations and coral polyp assimilation rates were quantified using biochemical assays. Results demonstrated significant nutrient uptake by coral polyps, particularly nitrogenous compounds, with higher removal efficiencies under stable salinity conditions. Temperature-induced stress was found to reduce polyp functionality. Enhanced sediment attenuation near reef structures improved coastal water transparency. The integration of vegetation buffers adjacent to reefs further augmented pollutant removal efficiency, with combined ecological strategies for effective pollution management.

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Publication Details

Journal
Water
Published
2025-04-18
DOI
https://doi.org/10.3390/w17081210
Citations
2
Primary Topic
Coral and Marine Ecosystems Studies
Type
article
Field-Weighted Citation Impact
3.43
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article

Coral Reef Calculus: Nature’s Equation for Pollution Control

George A. Papakostas, Zongliang Yue, Clark Xu, Vasileios Alevizos et al.
2 citations
Water
Coral and Marine Ecosystems Studies
3.43
article

Coral Reef Calculus: Nature’s Equation for Pollution Control

George A. Papakostas, Zongliang Yue, Clark Xu, Vasileios Alevizos, Sabrina Edralin, Nikitas Gerolimos
article en
2 citations

Abstract

Coral reefs play an essential ecological role in maintaining marine water quality by naturally filtering contaminants. This study investigates the quantitative capability of coral reef ecosystems to reduce waterborne pollutants using biologically mediated processes. A systematic methodology, combining in situ observations, laboratory simulations, and analytical modeling, was adopted to determine the filtration efficiency of coral reefs. Remote sensing and photogrammetry characterized reef morphology, while microbial consortia transformations and coral polyp assimilation rates were quantified using biochemical assays. Results demonstrated significant nutrient uptake by coral polyps, particularly nitrogenous compounds, with higher removal efficiencies under stable salinity conditions. Temperature-induced stress was found to reduce polyp functionality. Enhanced sediment attenuation near reef structures improved coastal water transparency. The integration of vegetation buffers adjacent to reefs further augmented pollutant removal efficiency, with combined ecological strategies for effective pollution management.

WaterVol. 17(8)
Mayo Clinic (US), Democritus University of Thrace (GR), University of Illinois Urbana-Champaign (US), Karolinska Institutet (SE), Auburn University (US), University of the Aegean (GR)
Openalex Percentile: Top 9%
Coral and Marine Ecosystems Studies
3.43
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