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Description: W14-Proceedings
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals
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Description: W14-Proceedings
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals

Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals

Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals

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Description: W14-Proceedings
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals
Abstract
Stabilization and dewatering methods for wastewater solids determine the concentration and nature of phosphorus (P) in biosolids and in-plant sidestreams recycled to the liquid treatment facility. Because water treatment residuals (WTR) exhibit strong immobilization of soluble P, this study evaluated the impact of co-dewatering WTR and biosolids on the P partitioning during dewatering and the environmental lability of biosolids-P measured by water extractable P (WEP). Overall, P progressively partitioned into the water-insoluble particulate-bound form in dewatered cake with increasing blending ratio (BR)—defined as the dry mass ratio of WTR-to-biosolids. The reject water total P (TP) content from dewatering biosolids alone (250 mg L−1) was reduced to 60 mg L−1 for a BR=1.5. Polymer addition resulted in statistically (α=0.05) lower reject liquid TP, suggesting the cationic polyelectrolyte contributed to P binding. The WEP of the dewatered cake (∼20% solids) dropped from 2.36 g kg−1 (biosolids only) to ∼0.14 g kg−1 for BR = 1.5, meaning the P in land-applied co-processed cake is less susceptible to solubilization by surface runoff compared to unamended biosolids. Co-dewatering can reduce P in return flows and fix P in the dewatered solids in a form less prone to off-site migration following land application.
Stabilization and dewatering methods for wastewater solids determine the concentration and nature of phosphorus (P) in biosolids and in-plant sidestreams recycled to the liquid treatment facility. Because water treatment residuals (WTR) exhibit strong immobilization of soluble P, this study evaluated the impact of co-dewatering WTR and biosolids on the P...
Author(s)
Malcolm TaylorHerschel A. Elliott
SourceProceedings of the Water Environment Federation
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Oct, 2014
ISSN1938-6478
DOI10.2175/193864714815929535
Volume / Issue2014 / 20
Content sourceWEFTEC
Copyright2014
Word count207

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Description: W14-Proceedings
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals
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Description: W14-Proceedings
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals
Abstract
Stabilization and dewatering methods for wastewater solids determine the concentration and nature of phosphorus (P) in biosolids and in-plant sidestreams recycled to the liquid treatment facility. Because water treatment residuals (WTR) exhibit strong immobilization of soluble P, this study evaluated the impact of co-dewatering WTR and biosolids on the P partitioning during dewatering and the environmental lability of biosolids-P measured by water extractable P (WEP). Overall, P progressively partitioned into the water-insoluble particulate-bound form in dewatered cake with increasing blending ratio (BR)—defined as the dry mass ratio of WTR-to-biosolids. The reject water total P (TP) content from dewatering biosolids alone (250 mg L−1) was reduced to 60 mg L−1 for a BR=1.5. Polymer addition resulted in statistically (α=0.05) lower reject liquid TP, suggesting the cationic polyelectrolyte contributed to P binding. The WEP of the dewatered cake (∼20% solids) dropped from 2.36 g kg−1 (biosolids only) to ∼0.14 g kg−1 for BR = 1.5, meaning the P in land-applied co-processed cake is less susceptible to solubilization by surface runoff compared to unamended biosolids. Co-dewatering can reduce P in return flows and fix P in the dewatered solids in a form less prone to off-site migration following land application.
Stabilization and dewatering methods for wastewater solids determine the concentration and nature of phosphorus (P) in biosolids and in-plant sidestreams recycled to the liquid treatment facility. Because water treatment residuals (WTR) exhibit strong immobilization of soluble P, this study evaluated the impact of co-dewatering WTR and biosolids on the P...
Author(s)
Malcolm TaylorHerschel A. Elliott
SourceProceedings of the Water Environment Federation
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Oct, 2014
ISSN1938-6478
DOI10.2175/193864714815929535
Volume / Issue2014 / 20
Content sourceWEFTEC
Copyright2014
Word count207

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Malcolm Taylor# Herschel A. Elliott. Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Web. 10 Oct. 2025. <https://www.accesswater.org?id=-282614CITANCHOR>.
Malcolm Taylor# Herschel A. Elliott. Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Accessed October 10, 2025. https://www.accesswater.org/?id=-282614CITANCHOR.
Malcolm Taylor# Herschel A. Elliott
Phosphorus Partitioning in Co-dewatering Biosolids and Water Treatment Residuals
Access Water
Water Environment Federation
December 22, 2018
October 10, 2025
https://www.accesswater.org/?id=-282614CITANCHOR