Technical Papers
Jul 11, 2013

Phosphorus Equilibrium. I: Impact of AlOx Media Substrates and Aqueous Matrices

Publication: Journal of Environmental Engineering
Volume 139, Issue 11

Abstract

For urban drainage, the role of granular media has expanded from particulate matter (PM) filtration to media also engineered for phosphorus (P) mass transfer. In this paper, equilibrium between P as total dissolved P (TDP) and granular substrate-based aluminum oxide (AlOx) media are investigated. Aluminum oxide coated media (AOCM) are clay- (AOCMc), pumice- (AOCMp), and concrete-based (AOCMpcc), and their native substrates [uncoated media with a clay substrate (UCMs)] serve as control media. Equilibrium is modeled with Freundlich isotherms. Isotherms are evaluated in municipal wet weather (runoff), dry weather (wastewater), and a surrogate deionized (DI) water matrix as a control, each at neutral pH. Compared to UCMs, AlOx-coated (clay, pumice) and AlOx-admixture media (concrete) yield significantly higher equilibrium capacity. For runoff and wastewater, AOCMc and AOCMp generate lower capacity compared with the surrogate matrix due to competitive effects, and ligand exchange is hypothesized as a primary mass transfer mechanism. AOCMpcc has higher capacity at higher TDP levels with surface precipitation hypothesized as a primary mechanism. For equal TDP levels, capacities of AOCMpcc and AOCMc exceed AOCMp. The native substrates of AlOx media and also the aqueous matrices have significant impacts on equilibrium. In contrast, Part II compares surface and physical indexes, equilibrium, and leaching for a wide range of media using a surrogate DI matrix. The two parameter Freundlich model is compared to a partitioning parameter to elucidate equilibrium for media with disparate capacities.

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Go to Journal of Environmental Engineering
Journal of Environmental Engineering
Volume 139Issue 11November 2013
Pages: 1315 - 1324

History

Received: Nov 11, 2012
Accepted: Jul 9, 2013
Published online: Jul 11, 2013
Published in print: Nov 1, 2013
Discussion open until: Dec 11, 2013

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T. Wu
Researcher, Environmental Engineering Science, Univ. of Florida, 218 Black Hall, Gainesville FL, 32611.
J. Sansalone [email protected]
M.ASCE
Professor, Environmental Engineering Science, Univ. of Florida, 218 Black Hall, Gainesville FL, 32611 (corresponding author). E-mail: [email protected]

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