Rapid and Intense Phosphate Desorption Kinetics When Saltwater Intrudes into Carbonate Rock

It is important to understand how phosphate sorption dynamics of coastal carbonate aquifers are affected by seawater intrusion, because many coastal aquifers are composed of carbonate rocks and subject to an increase in saltwater intrusion during relative sea-level rise. Twelve carbonate rock and un...

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Veröffentlicht in:Estuaries and coasts 2017-09, Vol.40 (5), p.1301-1313
Hauptverfasser: Flower, Hilary, Rains, Mark, Lewis, David, Zhang, Jia-Zhong
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creator Flower, Hilary
Rains, Mark
Lewis, David
Zhang, Jia-Zhong
description It is important to understand how phosphate sorption dynamics of coastal carbonate aquifers are affected by seawater intrusion, because many coastal aquifers are composed of carbonate rocks and subject to an increase in saltwater intrusion during relative sea-level rise. Twelve carbonate rock and unconsolidated sediment specimens were acquired from a test corehole spanning the full thickness of the Biscayne aquifer in southeastem Florida. All 12 samples exhibit low phosphorus content but variable contents of iron. Column leaching experiments were conducted with two carbonate aquifer samples, alternating between freshwater and saltwater flow. With the first influx of saltwater, phosphate concentration in leachate increased rapidly from a freshwater value of approximately 0.2 µm to peaks of between 0.8 and 1.6 µm. The phosphate concentration began to diminish as saltwater continued to flow, but sustained desorption continued for over 2 h. Overall, seawater drove sorption behavior much more than chemical composition for the aquifer rocks and sediment from the seven rock samples for which we did isotherm sorption experiments. Our results indicate that an immediate and intense pulse of phosphate desorption from carbonate rock and sediment with low phosphorus content occurs in response to an influx of seawater and that the duration of desorption will vary by layer within a single aquifer.
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source Jstor Complete Legacy; Springer Nature - Complete Springer Journals
subjects Aquifers
Carbonate rocks
Carbonates
Chemical analysis
Chemical composition
Coastal aquifers
Coastal Sciences
Desorption
Duration
Dynamics
Earth and Environmental Science
Ecology
Environment
Environmental Management
Freshwater
Freshwater & Marine Ecology
Inland water environment
Intrusion
Iron
Kinetics
Leachates
Leaching
Phosphate
Phosphates
Phosphorus
Rock
Rocks
Saline water
Saline water intrusion
Salt
Saltwater intrusion
Sea level rise
Seawater
Sediment
Sediment samples
Sediments
Sorption
Water analysis
Water and Health
title Rapid and Intense Phosphate Desorption Kinetics When Saltwater Intrudes into Carbonate Rock
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